mhurhangee/ep-ind-claims huggingface dataset:
Process for treating keratin materials, in particular the skin, in particular for treating the signs of skin aging, comprising the application to said materials of at least one cosmetic composition comprising one or more compounds of formula below and also the solvates thereof such as hydrates, the optical and geometric isomers and tautomers thereof and the organic or mineral base or acid salts thereof; in which formula: - S* denotes a monosaccharide chosen from D-glucose, D-xylose, L-rhamnose, D-mannose and D-galactose or a disaccharide chosen from D-lactose, D-maltose and D-cellobiose, said monosaccharide or disaccharide radical being connected to the rest of the molecule by a bond between the C 1 carbon atom of one of the sugars of said monosaccharide or disaccharide radical, this bond possibly being α or β anomeric; - X represents an oxygen atom; - R' represents a hydrogen atom; - R represents a group chosen from: i) hydroxyl; and ii) amino - NR 1 R 2 with R 1 and R 2, which may be identical or different, representing a hydrogen atom, a (C 1 -C 18)alkyl group, preferably C 1 -C 16 alkyl group such as methyl, n-propyl, n-hexyl, n-tetradecyl (n-C 14). and also the solvates thereof such as hydrates, the optical and geometric isomers and tautomers thereof and the organic or mineral base or acid salts thereof; in which formula: - S* denotes a monosaccharide chosen from D-glucose, D-xylose, L-rhamnose, D-mannose and D-galactose or a disaccharide chosen from D-lactose, D-maltose and D-cellobiose, said monosaccharide or disaccharide radical being connected to the rest of the molecule by a bond between the C 1 carbon atom of one of the sugars of said monosaccharide or disaccharide radical, this bond possibly being α or β anomeric; - X represents an oxygen atom; - R' represents a hydrogen atom; - R represents a group chosen from: i) hydroxyl; and ii) amino - NR 1 R 2 with R 1 and R 2, which may be identical or different, representing a hydrogen atom, a (C 1 -C 18)alkyl group, preferably C 1 -C 16 alkyl group such as methyl, n-propyl, n-hexyl, n-tetradecyl (n-C 14). - S* denotes a monosaccharide chosen from D-glucose, D-xylose, L-rhamnose, D-mannose and D-galactose or a disaccharide chosen from D-lactose, D-maltose and D-cellobiose, said monosaccharide or disaccharide radical being connected to the rest of the molecule by a bond between the C 1 carbon atom of one of the sugars of said monosaccharide or disaccharide radical, this bond possibly being α or β anomeric; - X represents an oxygen atom; - R' represents a hydrogen atom; - R represents a group chosen from: i) hydroxyl; and ii) amino - NR 1 R 2 with R 1 and R 2, which may be identical or different, representing a hydrogen atom, a (C 1 -C 18)alkyl group, preferably C 1 -C 16 alkyl group such as methyl, n-propyl, n-hexyl, n-tetradecyl (n-C 14).
A method of diagnosing faults in a monitored system, the method comprising a fuzzy logic engine: generating estimates of parameter data for parameters monitored on the monitored system by using reference parameter data characteristic of known behavior of the system contained in a reference library; comparing the generated estimates of the parameter data with measured parameter data; determining a residual for each of the parameters based on a relationship between the generated estimates of the parameter data and the measured parameter data; normalising each of the residuals with respect to one or two user specified residual thresholds; implementing at least one fuzzy classification rule to determine a likelihood that a predetermined fault exists, the at least one fuzzy classification rule using at least one membership function to analyse the normalised residuals; and a notification engine issuing a first notification in response to the determined likelihood exceeding a first likelihood threshold.
A method of operating a particle detector, comprising: (a) receiving incident particles that represent at least one input signal in the particle detector; (b) emitting electrons from a first dynode in response to receiving the incident particles; (c) directing the emitted electrons to a plurality of additional dynodes arranged in a cascading relationship; (d) measuring a partitioned detection current generated at an intermediate dynode, wherein electrons striking a part of the total surface emitting area provide the partitioned detection current, and wherein electrons striking a remaining surface area are allowed to propagate in a normal mode; and, (e) regulating a gain to at least one dynode positioned downstream of the intermediate dynode based on the measured partitioned detection current. (a) receiving incident particles that represent at least one input signal in the particle detector; (b) emitting electrons from a first dynode in response to receiving the incident particles; (c) directing the emitted electrons to a plurality of additional dynodes arranged in a cascading relationship; (d) measuring a partitioned detection current generated at an intermediate dynode, wherein electrons striking a part of the total surface emitting area provide the partitioned detection current, and wherein electrons striking a remaining surface area are allowed to propagate in a normal mode; and, (e) regulating a gain to at least one dynode positioned downstream of the intermediate dynode based on the measured partitioned detection current.
A display device, comprising: a first electrode; a second electrode disposed to be spaced apart from the first electrode and to face the first electrode; a first insulating layer disposed to cover the first electrode and the second electrode; a second insulating layer disposed on at least a part of the first insulating layer and including a plurality of openings disposed to be spaced apart from each other, each exposing the first insulating layer in a region overlapping the first electrode and the second electrode where the first electrode and the second electrode face each other, and a bridge portion between the openings, and at least one light emitting element disposed between the first electrode and the second electrode and directly disposed on the exposed first insulating layer in each of the openings. a first electrode; a second electrode disposed to be spaced apart from the first electrode and to face the first electrode; a first insulating layer disposed to cover the first electrode and the second electrode; a second insulating layer disposed on at least a part of the first insulating layer and including a plurality of openings disposed to be spaced apart from each other, each exposing the first insulating layer in a region overlapping the first electrode and the second electrode where the first electrode and the second electrode face each other, and a bridge portion between the openings, and at least one light emitting element disposed between the first electrode and the second electrode and directly disposed on the exposed first insulating layer in each of the openings.
A method for determining sequences from sense and antisense strands of a nucleic acid, comprising (a) providing a nucleic acid cluster attached to a solid support, wherein the nucleic acid cluster comprises a sense strand of a concatemer and an antisense strand of the concatemer, wherein the concatemer comprises multiple copies of a sequence unit linked in series, wherein the sequence unit comprises a target sequence and a primer binding site; (b) hybridizing a primer to the primer binding site in a sequence unit of the antisense strand in the cluster; (c) extending the primer along the antisense strand to determine the sequence from at least a portion of the target sequence in the antisense strand; (d) removing the antisense strand from the cluster; (e) hybridizing a second primer to the primer binding site in a sequence unit of the sense strand; and (f) extending the second primer along the sense strand to determine the sequence from at least a portion of the target sequence in the sense strand; wherein all sequence templates are generated prior to any sequencing reactions. (a) providing a nucleic acid cluster attached to a solid support, wherein the nucleic acid cluster comprises a sense strand of a concatemer and an antisense strand of the concatemer, wherein the concatemer comprises multiple copies of a sequence unit linked in series, wherein the sequence unit comprises a target sequence and a primer binding site; (b) hybridizing a primer to the primer binding site in a sequence unit of the antisense strand in the cluster; (c) extending the primer along the antisense strand to determine the sequence from at least a portion of the target sequence in the antisense strand; (d) removing the antisense strand from the cluster; (e) hybridizing a second primer to the primer binding site in a sequence unit of the sense strand; and (f) extending the second primer along the sense strand to determine the sequence from at least a portion of the target sequence in the sense strand;
A method of forming a casting with a flow passage according to any of claims 7-10, comprising: forming a core obtained by filling a tubular pipe with a filler; inserting the core into a mold having a cavity corresponding to a shape of the casting to be formed; performing a casting process by injecting molten metal into the cavity; and removing the filler from the core, wherein the casting process is performed through a die casting process, wherein the forming a core comprises: filling the tubular pipe with the filler, and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted. forming a core obtained by filling a tubular pipe with a filler; inserting the core into a mold having a cavity corresponding to a shape of the casting to be formed; performing a casting process by injecting molten metal into the cavity; and removing the filler from the core, wherein the casting process is performed through a die casting process, wherein the forming a core comprises: filling the tubular pipe with the filler, and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted. filling the tubular pipe with the filler, and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted.
A probe for detecting a gene of infectious disease pathogenic bacterium, Propionibacterium acnes, wherein the base sequence is any one of the following base sequences or: GGGCTAATACCGGATAGGAGCTCCTG (SEQ ID NO. 87) or the complementary sequence thereof; a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequence of SEQ ID NO. 87 and the complementary sequence thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 × SSPE/10% formamide/target/0.05 wt% (6 × SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 × SSC/0.1 % SDS at 50°C, washing with 2 × SSC/0.1 % SDS at 20°C. GGGCTAATACCGGATAGGAGCTCCTG (SEQ ID NO. 87) or the complementary sequence thereof; a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequence of SEQ ID NO. 87 and the complementary sequence thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 × SSPE/10% formamide/target/0.05 wt% (6 × SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 × SSC/0.1 % SDS at 50°C, washing with 2 × SSC/0.1 % SDS at 20°C.
An apparatus for use with a prosthetic system, the apparatus comprises: a controller and a plurality of sensors (503, 504, 505, 506) disposed within a housing, wherein the controller operates to gather data and derive prosthetic information from the plurality of sensors (503, 504, 505, 506), and transmit said prosthetic information over a wireless radio link; a vacuum pump, coupled to said controller, that is adapted to be dynamically actuated by said controller to maintain, in use, a prescribed negative air pressure within said prosthetic socket as a function of a portion of said prosthetic information, and wherein the vacuum pump is disposed within the housing; characterised in that said housing is adapted to be disposed at the distal end of the interior of a prosthetic socket (112, 203), and in that the apparatus further comprises a wireless smart device, coupled to said controller via said wireless radio link, that is adapted to receive said prosthetic information, and to provide visual and audio representations of said prosthetic information to a user. a controller and a plurality of sensors (503, 504, 505, 506) disposed within a housing, wherein the controller operates to gather data and derive prosthetic information from the plurality of sensors (503, 504, 505, 506), and transmit said prosthetic information over a wireless radio link; a vacuum pump, coupled to said controller, that is adapted to be dynamically actuated by said controller to maintain, in use, a prescribed negative air pressure within said prosthetic socket as a function of a portion of said prosthetic information, and wherein the vacuum pump is disposed within the housing; characterised in that said housing is adapted to be disposed at the distal end of the interior of a prosthetic socket (112, 203), and in that the apparatus further comprises a wireless smart device, coupled to said controller via said wireless radio link, that is adapted to receive said prosthetic information, and to provide visual and audio representations of said prosthetic information to a user.
A heating, ventilation, air conditioning and refrigeration (HVAC/R) system comprising: a sorption circuit; and a heat exchange circuit, in fluid communication with the sorption circuit, including: a conditioning heat exchanger; and an ambient heat exchanger; characterised in that the sorption circuit comprises a primary fluid flow source; a heat absorption heat exchanger in fluid communication with the primary fluid flow source such that a primary fluid flow from the primary fluid flow source is directed through the heat absorption heat exchanger, the heat absorption heat exchanger configured to exchange thermal energy between the primary fluid flow and a secondary fluid flow through the heat absorption heat exchanger; and a sorption heat exchanger including a volume of sorbent material to adsorb or absorb the primary fluid flow, generating thermal energy at the sorption heat exchanger, the sorption heat exchanger being configured to transfer the generated thermal energy to a tertiary fluid flow through the sorption heat exchanger; and the heat exchange circuit further comprises: a plurality of control valves (42, 44, 54, 56)connected to both the secondary fluid flow and the tertiary fluid flow configured to selectably direct the secondary fluid flow and/or the tertiary fluid flow to the conditioning heat exchanger or the ambient heat exchanger. a sorption circuit; and a heat exchange circuit, in fluid communication with the sorption circuit, including: a conditioning heat exchanger; and an ambient heat exchanger; a conditioning heat exchanger; and an ambient heat exchanger; characterised in that the sorption circuit comprises a primary fluid flow source; a heat absorption heat exchanger in fluid communication with the primary fluid flow source such that a primary fluid flow from the primary fluid flow source is directed through the heat absorption heat exchanger, the heat absorption heat exchanger configured to exchange thermal energy between the primary fluid flow and a secondary fluid flow through the heat absorption heat exchanger; and a sorption heat exchanger including a volume of sorbent material to adsorb or absorb the primary fluid flow, generating thermal energy at the sorption heat exchanger, the sorption heat exchanger being configured to transfer the generated thermal energy to a tertiary fluid flow through the sorption heat exchanger; and the heat exchange circuit further comprises: a plurality of control valves (42, 44, 54, 56)connected to both the secondary fluid flow and the tertiary fluid flow configured to selectably direct the secondary fluid flow and/or the tertiary fluid flow to the conditioning heat exchanger or the ambient heat exchanger.
A hair styling iron comprising: a handle to which a barrel is mounted, a heating element in the barrel; a rotary drive that rotates the barrel; a control circuit including a timer; a momentary drive switch which is user actuable and connected to the control circuit for control of the rotary drive, whereby actuation of the drive switch must be maintained by the user in order to operate the rotary drive; and wherein the control circuit monitors at least one change of state of the user-actuable drive switch to determine a starting time, and actuates an alarm after an elapsed time measured from the starting time, the alarm indicating an appropriate curling time to the user, the elapsed time being calculated by the control circuit in direct proportion to the angle of rotation of the barrel relative to the handle that occurs between first actuation of the drive switch and release of the drive switch immediately following the first actuation of the drive switch.
A method (200, 300) for operating a personal care device (100, 400), the method comprising: obtaining, using an imaging device, image data relating to a portion of a body of a user to be treated by the personal care device; and measuring, using the image data, a parameter relating to at least one hair growing from the portion of the body; characterized in that the method (200, 300) further comprises determining a position of the portion of the body on the body based on the measured parameter and a predetermined relation between the parameter and the position on the body. obtaining, using an imaging device, image data relating to a portion of a body of a user to be treated by the personal care device; and measuring, using the image data, a parameter relating to at least one hair growing from the portion of the body; characterized in that the method (200, 300) further comprises determining a position of the portion of the body on the body based on the measured parameter and a predetermined relation between the parameter and the position on the body.
A method for temporarily bonding a wafer having a circuit-forming front surface and a back surface to be processed to a support via a temporary bonding arrangement, said temporary bonding arrangement being a composite temporary adhesive layer of trilayer structure consisting of a first temporary bond layer in the form of a non-silicone thermoplastic resin layer which is releasably bonded to the front surface of the wafer, a second temporary bond layer in the form of a thermosetting siloxane polymer layer laid on the first temporary bond layer, and a third temporary bond layer in the form of a thermosetting siloxane-modified polymer layer releasably bonded to the support, said method comprising the steps of: providing a wafer laminate having a thermosetting silicone composition layer (B') for forming the thermosetting siloxane polymer layer, formed on the resin layer which has been formed on the front surface of the wafer, providing a support laminate having a siloxane-containing composition layer (C') for forming the thermosetting siloxane-modified polymer layer, formed on the support, and joining and heating the thermosetting silicone composition layer (B') and the siloxane-containing composition layer (C') in vacuum for bonding and curing the layers together. providing a wafer laminate having a thermosetting silicone composition layer (B') for forming the thermosetting siloxane polymer layer, formed on the resin layer which has been formed on the front surface of the wafer, providing a support laminate having a siloxane-containing composition layer (C') for forming the thermosetting siloxane-modified polymer layer, formed on the support, and joining and heating the thermosetting silicone composition layer (B') and the siloxane-containing composition layer (C') in vacuum for bonding and curing the layers together.
A liquid crystal display comprising: a gate line and a data line disposed to cross over each other; a common line crossing over the data line and disposed in parallel with the gate line; a dummy data line crossing over the gate line and disposed in parallel with the data line; a dummy pixel electrode (DPx) disposed between the data line and the dummy data line in a dummy area adjacent to an outermost side of a display area and disposed in a portion of a non-display area; a pixel electrode disposed in a pixel area adjacent to the dummy pixel electrode on the side of the data line opposite to the side where the dummy pixel electrode is disposed; and a common electrode connected to the common line and disposed to overlap the pixel electrode and the dummy pixel electrode (DPx), wherein the dummy pixel electrode (DPx) is connected to the common line, characterized in that the dummy pixel electrode (DPx) is connected to a protrusion that is between the gate line and the common line adjacent to each other, wherein the protrusion, in a plan view, extends from the common line and protrudes toward the gate line. a gate line and a data line disposed to cross over each other; a common line crossing over the data line and disposed in parallel with the gate line; a dummy data line crossing over the gate line and disposed in parallel with the data line; a dummy pixel electrode (DPx) disposed between the data line and the dummy data line in a dummy area adjacent to an outermost side of a display area and disposed in a portion of a non-display area; a pixel electrode disposed in a pixel area adjacent to the dummy pixel electrode on the side of the data line opposite to the side where the dummy pixel electrode is disposed; and a common electrode connected to the common line and disposed to overlap the pixel electrode and the dummy pixel electrode (DPx), wherein the dummy pixel electrode (DPx) is connected to the common line, characterized in that the dummy pixel electrode (DPx) is connected to a protrusion that is between the gate line and the common line adjacent to each other, wherein the protrusion, in a plan view, extends from the common line and protrudes toward the gate line.