Book
2003, 1, Medicinal and aromatic plants--industrial profiles, ISBN 9780415299916, Volume 33, 296
Capsicum has been used since ancient times not only as a traditional medicine but also as a natural colorant. The medicinal properties of capsicum make it...
Peppers | Capsicum | Plants, Edible | Plants, Medicinal | Therapeutic use | Biology, life sciences
Peppers | Capsicum | Plants, Edible | Plants, Medicinal | Therapeutic use | Biology, life sciences
eBook
Book
Journal of Food Engineering, ISSN 0260-8774, 08/2018, Volume 231, pp. 101 - 108
In current work, the evolution kinetic models of moisture, surface colour ( , , and ), natural pigment and non-enzymatic browning (NEB) of red pepper during...
Surface colour | Red pepper | Degradation kinetics | Natural pigment | Non-enzymatic browning | ANTIOXIDANT ACTIVITY | BIOACTIVE COMPOUNDS | QUALITY | FOOD SCIENCE & TECHNOLOGY | ASCORBIC-ACID | CAROTENOID CONTENT | CAPSAICINOIDS | ENGINEERING, CHEMICAL | BETA-CAROTENE | TEMPERATURE | THERMAL-DEGRADATION KINETICS | CAPSICUM-ANNUUM | Electrical engineering | Enzymes | Activation energy | Analysis
Surface colour | Red pepper | Degradation kinetics | Natural pigment | Non-enzymatic browning | ANTIOXIDANT ACTIVITY | BIOACTIVE COMPOUNDS | QUALITY | FOOD SCIENCE & TECHNOLOGY | ASCORBIC-ACID | CAROTENOID CONTENT | CAPSAICINOIDS | ENGINEERING, CHEMICAL | BETA-CAROTENE | TEMPERATURE | THERMAL-DEGRADATION KINETICS | CAPSICUM-ANNUUM | Electrical engineering | Enzymes | Activation energy | Analysis
Journal Article
LWT, ISSN 0023-6438, 10/2017, Volume 84, pp. 842 - 850
Volatile organic compounds (VOC) in fresh (FRC), red pepper flakes (RPF), industrial (INI), and traditional (TRI) isot spices were quantitatively analyzed by...
Volatile compound | Red pepper flakes spice | Capsicum annuum | Isot spice | Principal component analysis | FLAVOR COMPOUNDS | BELL PEPPERS | FOOD SCIENCE & TECHNOLOGY | PAPRIKA | AROMA | IDENTIFICATION | GAS-CHROMATOGRAPHY | ORGANIC-COMPOUNDS | DEGRADATION | SENSORY EVALUATION | CONSTITUENTS | Volatile organic compounds | Enzymes | Mass spectrometry | Analysis | Furans
Volatile compound | Red pepper flakes spice | Capsicum annuum | Isot spice | Principal component analysis | FLAVOR COMPOUNDS | BELL PEPPERS | FOOD SCIENCE & TECHNOLOGY | PAPRIKA | AROMA | IDENTIFICATION | GAS-CHROMATOGRAPHY | ORGANIC-COMPOUNDS | DEGRADATION | SENSORY EVALUATION | CONSTITUENTS | Volatile organic compounds | Enzymes | Mass spectrometry | Analysis | Furans
Journal Article
Asian-Australasian Journal of Animal Sciences, ISSN 1011-2367, 11/2012, Volume 25, Issue 11, pp. 1605 - 1610
Two experiments were conducted to study the effects of red pepper (Capsicum frutescens) powder or red pepper pigment on the performance and egg yolk color of...
Pigments | Red pepper powder | Laying hens | Egg weight | Egg yolk color | EXTRACTION | AGRICULTURE, DAIRY & ANIMAL SCIENCE | Laying Hens | DEPOSITION | Egg Weight | Red Pepper Powder | CAROTENOIDS | Egg Yolk Color | Usage | Animal feeding and feeds | Physiological aspects | Research | Peppers | Health aspects | Eggs | 축산학
Pigments | Red pepper powder | Laying hens | Egg weight | Egg yolk color | EXTRACTION | AGRICULTURE, DAIRY & ANIMAL SCIENCE | Laying Hens | DEPOSITION | Egg Weight | Red Pepper Powder | CAROTENOIDS | Egg Yolk Color | Usage | Animal feeding and feeds | Physiological aspects | Research | Peppers | Health aspects | Eggs | 축산학
Journal Article
International Journal of Food Microbiology, ISSN 0168-1605, 02/2014, Volume 172, pp. 125 - 129
This study evaluated the efficacy of gamma irradiation to inactivate foodborne pathogens in black pepper ( ) and red pepper (dried ). Black pepper and red...
Black pepper | Gamma irradiation | Red pepper | Inactivation | Foodborne pathogen | UNITED-STATES | MICROBIAL INACTIVATION | FOOD SCIENCE & TECHNOLOGY | MICROBIOLOGY | RADIATION | SPICES | RECOVERY | MICROBIOLOGICAL QUALITY | O157-H7 | ANTIOXIDANT | OZONE | Salmonella typhimurium - radiation effects | Capsicum - microbiology | Food Handling - methods | Escherichia coli O157 - radiation effects | Colony Count, Microbial | Microbial Viability | Food Microbiology | Spices - microbiology | Piper nigrum - microbiology | Salmonella typhimurium
Black pepper | Gamma irradiation | Red pepper | Inactivation | Foodborne pathogen | UNITED-STATES | MICROBIAL INACTIVATION | FOOD SCIENCE & TECHNOLOGY | MICROBIOLOGY | RADIATION | SPICES | RECOVERY | MICROBIOLOGICAL QUALITY | O157-H7 | ANTIOXIDANT | OZONE | Salmonella typhimurium - radiation effects | Capsicum - microbiology | Food Handling - methods | Escherichia coli O157 - radiation effects | Colony Count, Microbial | Microbial Viability | Food Microbiology | Spices - microbiology | Piper nigrum - microbiology | Salmonella typhimurium
Journal Article
Journal of Food Composition and Analysis, ISSN 0889-1575, 2007, Volume 20, Issue 3, pp. 346 - 351
Studies were made to examine the loss of curcumin, capsaicin and piperine, the active principles of turmeric ( ), red pepper ( ) and black pepper ( ),...
Turmeric | Spice principles | Piperine | Red pepper | Capsaicin | Curcuma longa | Piper nigrum | Loss during heat processing | Capsicum annuum | Black pepper | Curcumin | red pepper | FOOD SCIENCE & TECHNOLOGY | piperine | loss during heat processing | CURCUMINOIDS | black pepper | spice principles | capsaicin | DEGRADATION | turmeric | CHEMISTRY, APPLIED | curcumin
Turmeric | Spice principles | Piperine | Red pepper | Capsaicin | Curcuma longa | Piper nigrum | Loss during heat processing | Capsicum annuum | Black pepper | Curcumin | red pepper | FOOD SCIENCE & TECHNOLOGY | piperine | loss during heat processing | CURCUMINOIDS | black pepper | spice principles | capsaicin | DEGRADATION | turmeric | CHEMISTRY, APPLIED | curcumin
Journal Article
2005, ISBN 1844498298, vi, 389
Book
Journal of the Science of Food and Agriculture, ISSN 0022-5142, 04/2017, Volume 97, Issue 6, pp. 1894 - 1903
BACKGROUND Red pepper seeds account for 450–500 g kg−1 of the total pepper weight and are often discarded as waste. In this study, process optimization and...
fragrant red pepper seed oil | response surface methodology | volatile flavor compounds | subcritical butane extraction | physicochemical properties | FOOD SCIENCE & TECHNOLOGY | SOLID-PHASE MICROEXTRACTION | PARAMETERS | GAS-CHROMATOGRAPHY | ANTIOXIDANT | VOLATILES | AGRICULTURE, MULTIDISCIPLINARY | OXIDATIVE STABILITY | CHEMISTRY, APPLIED | FLUID EXTRACTION | Oxidation-Reduction | Chemical Fractionation - instrumentation | Seeds - chemistry | Butanes - chemistry | Plant Oils - isolation & purification | Chemical Fractionation - methods | Plant Oils - chemistry | Capsicum - chemistry | Petroleum mining | Butane | Monounsaturated fatty acids | Seeds | Spices | Oils & fats | Food science | Extraction | Volatile compounds | Aldehydes | Fatty acids | Butanes | Optimization | Red peppers
fragrant red pepper seed oil | response surface methodology | volatile flavor compounds | subcritical butane extraction | physicochemical properties | FOOD SCIENCE & TECHNOLOGY | SOLID-PHASE MICROEXTRACTION | PARAMETERS | GAS-CHROMATOGRAPHY | ANTIOXIDANT | VOLATILES | AGRICULTURE, MULTIDISCIPLINARY | OXIDATIVE STABILITY | CHEMISTRY, APPLIED | FLUID EXTRACTION | Oxidation-Reduction | Chemical Fractionation - instrumentation | Seeds - chemistry | Butanes - chemistry | Plant Oils - isolation & purification | Chemical Fractionation - methods | Plant Oils - chemistry | Capsicum - chemistry | Petroleum mining | Butane | Monounsaturated fatty acids | Seeds | Spices | Oils & fats | Food science | Extraction | Volatile compounds | Aldehydes | Fatty acids | Butanes | Optimization | Red peppers
Journal Article
Food Chemistry, ISSN 0308-8146, 04/2017, Volume 220, pp. 145 - 152
Effects of high-humidity hot air impingement blanching (HHAIB) under different times (30, 60, 90, 120, 150, 180, 210, and 240 s) on drying characteristics and...
Red pepper | High-humidity hot air impingement blanching (HHAIB) | Hot air impingement drying | Microstructure | Texture | Polyphenol oxidase | Colour | BELL PEPPERS | FOOD SCIENCE & TECHNOLOGY | PEROXIDASE INACTIVATION | MANGIFERA-INDICA L | ANTIOXIDANT CAPACITY | INACTIVATION KINETICS | SLICES | NUTRITION & DIETETICS | PRESSURE TREATMENTS | COLOR CHANGES | TOTAL PHENOLIC CONTENT | CHEMISTRY, APPLIED | Catechol Oxidase - chemistry | Desiccation | Color | Humidity | Food Handling | Hot Temperature | Capsicum - chemistry
Red pepper | High-humidity hot air impingement blanching (HHAIB) | Hot air impingement drying | Microstructure | Texture | Polyphenol oxidase | Colour | BELL PEPPERS | FOOD SCIENCE & TECHNOLOGY | PEROXIDASE INACTIVATION | MANGIFERA-INDICA L | ANTIOXIDANT CAPACITY | INACTIVATION KINETICS | SLICES | NUTRITION & DIETETICS | PRESSURE TREATMENTS | COLOR CHANGES | TOTAL PHENOLIC CONTENT | CHEMISTRY, APPLIED | Catechol Oxidase - chemistry | Desiccation | Color | Humidity | Food Handling | Hot Temperature | Capsicum - chemistry
Journal Article
2004, New ed., ISBN 0753509709, viii, 296 p., [8] p. of plates
Book
Journal of the Science of Food and Agriculture, ISSN 0022-5142, 08/2016, Volume 96, Issue 10, pp. 3596 - 3603
BACKGROUND Hot air drying and sun drying are traditional drying technologies widely used in the drying of agricultural products for a long time, but usually...
infrared drying | effective moisture diffusivity | color | texture | drying characteristics | Infrared drying | Texture | Effective moisture diffusivity | Drying characteristics | Color | FOOD SCIENCE & TECHNOLOGY | SEQUENTIAL INFRARED RADIATION | ANTIOXIDANT CAPACITY | HOT-AIR | PHYSICOCHEMICAL PROPERTIES | MOISTURE DIFFUSIVITY | SLICES | TEMPERATURE | KINETICS | DEHYDRATION | AGRICULTURE, MULTIDISCIPLINARY | ANNUUM L | CHEMISTRY, APPLIED | Desiccation - methods | Fruit | Infrared Rays | Food Preservation - methods | Sunlight | Hot Temperature | Capsicum - chemistry | Spices | Food quality | Food science | Drying agents | Infrared | Air drying | Moisture | Sun | Diffusivity | Drying | Red peppers
infrared drying | effective moisture diffusivity | color | texture | drying characteristics | Infrared drying | Texture | Effective moisture diffusivity | Drying characteristics | Color | FOOD SCIENCE & TECHNOLOGY | SEQUENTIAL INFRARED RADIATION | ANTIOXIDANT CAPACITY | HOT-AIR | PHYSICOCHEMICAL PROPERTIES | MOISTURE DIFFUSIVITY | SLICES | TEMPERATURE | KINETICS | DEHYDRATION | AGRICULTURE, MULTIDISCIPLINARY | ANNUUM L | CHEMISTRY, APPLIED | Desiccation - methods | Fruit | Infrared Rays | Food Preservation - methods | Sunlight | Hot Temperature | Capsicum - chemistry | Spices | Food quality | Food science | Drying agents | Infrared | Air drying | Moisture | Sun | Diffusivity | Drying | Red peppers
Journal Article
Food Microbiology, ISSN 0740-0020, 04/2014, Volume 38, pp. 128 - 136
Effects of the microwave-powered cold plasma treatments (CPTs) on the inhibition of microorganisms in red pepper powder, including and spores, were...
Nonthermal process | Weibull model | Cold plasma | Bacillus cereus | Red pepper | Fermi's model | ATMOSPHERIC PLASMA | FOOD SCIENCE & TECHNOLOGY | ESCHERICHIA-COLI | MICROWAVE PLASMA | MICROBIOLOGY | INACTIVATION | STERILIZATION | HEAT | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GAS-PRESSURE | EFFICIENCY | BACILLUS-SUBTILIS SPORES | FOOD | Aspergillus flavus - drug effects | Food Preservation - methods | Spores, Fungal - growth & development | Plasma Gases - pharmacology | Powders - chemistry | Aspergillus flavus - growth & development | Capsicum - microbiology | Spores, Fungal - drug effects | Bacillus cereus - drug effects | Spores, Bacterial - growth & development | Spores, Bacterial - drug effects | Decontamination - methods | Bacillus cereus - growth & development | Capsicum - chemistry | Plasma physics | Analysis
Nonthermal process | Weibull model | Cold plasma | Bacillus cereus | Red pepper | Fermi's model | ATMOSPHERIC PLASMA | FOOD SCIENCE & TECHNOLOGY | ESCHERICHIA-COLI | MICROWAVE PLASMA | MICROBIOLOGY | INACTIVATION | STERILIZATION | HEAT | BIOTECHNOLOGY & APPLIED MICROBIOLOGY | GAS-PRESSURE | EFFICIENCY | BACILLUS-SUBTILIS SPORES | FOOD | Aspergillus flavus - drug effects | Food Preservation - methods | Spores, Fungal - growth & development | Plasma Gases - pharmacology | Powders - chemistry | Aspergillus flavus - growth & development | Capsicum - microbiology | Spores, Fungal - drug effects | Bacillus cereus - drug effects | Spores, Bacterial - growth & development | Spores, Bacterial - drug effects | Decontamination - methods | Bacillus cereus - growth & development | Capsicum - chemistry | Plasma physics | Analysis
Journal Article
16.
Full Text
Effects of artificial lighting on bioactivity of sweet red pepper (Capsicum annuum L.)
International Journal of Food Science & Technology, ISSN 0950-5423, 06/2016, Volume 51, Issue 6, pp. 1378 - 1385
Summary Recent studies have shown that artificial light effectively promotes the growth and development of red peppers when light spectra, intensities and...
polyphenols | bell pepper | Ascorbic acid | light quality | binding properties | flavonoids | health‐promoting compounds | Light quality | Flavonoids | Binding properties | Bell pepper | Polyphenols | Health-promoting compounds | EMITTING-DIODES | CAPACITY | QUALITY | YIELD | BLUE | ANTIOXIDANT ACTIVITIES | FOOD SCIENCE & TECHNOLOGY | RESPONSES | GROWTH | health-promoting compounds | PHOTOSYNTHESIS | CONSTITUENTS | Analysis | Organic acids | Food science | Plant growth | Lighting | Methyl alcohol | Fluorescence | Illumination | Spectra | Peppers | Red peppers
polyphenols | bell pepper | Ascorbic acid | light quality | binding properties | flavonoids | health‐promoting compounds | Light quality | Flavonoids | Binding properties | Bell pepper | Polyphenols | Health-promoting compounds | EMITTING-DIODES | CAPACITY | QUALITY | YIELD | BLUE | ANTIOXIDANT ACTIVITIES | FOOD SCIENCE & TECHNOLOGY | RESPONSES | GROWTH | health-promoting compounds | PHOTOSYNTHESIS | CONSTITUENTS | Analysis | Organic acids | Food science | Plant growth | Lighting | Methyl alcohol | Fluorescence | Illumination | Spectra | Peppers | Red peppers
Journal Article
Journal of Food Science and Technology, ISSN 0022-1155, 2/2018, Volume 55, Issue 2, pp. 792 - 801
The purposes of this study were to identify physicochemical properties and evaluate bioactive compound levels and antioxidant characteristics at 30 day...
Chemistry | Food Science | Nutrition | Red pepper | Chemistry/Food Science, general | Antioxidant activity | Gochujang | Fermentation | Physicochemical properties | CAPACITY | KOCHUJANG | AMINO | FOOD SCIENCE & TECHNOLOGY | PHENOLICS | RATS | CHROMATOGRAPHY | CANCER | SPICES | CAPSAICIN | FOOD | Capsaicin | Color | Amino acids | Food science | pH effects | β-Carotene | Antioxidants | Studies | Flavonoids | Properties (attributes) | Fluorescence recovery after photobleaching | Bioactive compounds | pH | Polyphenols | Capsicum annuum | Comparative analysis | Sugar | Sugars | Original
Chemistry | Food Science | Nutrition | Red pepper | Chemistry/Food Science, general | Antioxidant activity | Gochujang | Fermentation | Physicochemical properties | CAPACITY | KOCHUJANG | AMINO | FOOD SCIENCE & TECHNOLOGY | PHENOLICS | RATS | CHROMATOGRAPHY | CANCER | SPICES | CAPSAICIN | FOOD | Capsaicin | Color | Amino acids | Food science | pH effects | β-Carotene | Antioxidants | Studies | Flavonoids | Properties (attributes) | Fluorescence recovery after photobleaching | Bioactive compounds | pH | Polyphenols | Capsicum annuum | Comparative analysis | Sugar | Sugars | Original
Journal Article
Critical Reviews in Food Science and Nutrition, ISSN 1040-8398, 07/2016, Volume 56, Issue 9, pp. 1488 - 1500
Capsaicin, the pungent alkaloid of red pepper (Capsicum annuum) has been extensively studied for its biological effects which are of pharmacological relevance....
Cardio protective | Red pepper | Capsaicin | Thermogenic | Cancer preventive | Pain relief | Vanilloid receptor | Anti-inflammatory | NEUROGENIC INFLAMMATION | LIPID-PEROXIDATION | FAT-FED RATS | FOOD SCIENCE & TECHNOLOGY | HYPERCHOLESTEROLEMIC RATS | DIETARY SPICES | SENSORY NEURONS | ACTIVE PRINCIPLES | TOPICAL CAPSAICIN | NUTRITION & DIETETICS | CHOLESTEROL GALLSTONE INDUCTION | IN-VIVO | Hypolipidemic Agents | Anti-Inflammatory Agents | Capsaicin - pharmacology | Capsaicin - therapeutic use | Plant Extracts - pharmacology | Humans | Gastrointestinal Tract - drug effects | Neoplasms - prevention & control | Antioxidants | Cardiotonic Agents | Lithiasis - prevention & control | Animals | Analgesics | Weight Loss | Capsicum - chemistry | Influence | Diabetic neuropathy | Pain | Rodents | Index Medicus
Cardio protective | Red pepper | Capsaicin | Thermogenic | Cancer preventive | Pain relief | Vanilloid receptor | Anti-inflammatory | NEUROGENIC INFLAMMATION | LIPID-PEROXIDATION | FAT-FED RATS | FOOD SCIENCE & TECHNOLOGY | HYPERCHOLESTEROLEMIC RATS | DIETARY SPICES | SENSORY NEURONS | ACTIVE PRINCIPLES | TOPICAL CAPSAICIN | NUTRITION & DIETETICS | CHOLESTEROL GALLSTONE INDUCTION | IN-VIVO | Hypolipidemic Agents | Anti-Inflammatory Agents | Capsaicin - pharmacology | Capsaicin - therapeutic use | Plant Extracts - pharmacology | Humans | Gastrointestinal Tract - drug effects | Neoplasms - prevention & control | Antioxidants | Cardiotonic Agents | Lithiasis - prevention & control | Animals | Analgesics | Weight Loss | Capsicum - chemistry | Influence | Diabetic neuropathy | Pain | Rodents | Index Medicus
Journal Article