mhurhangee/patent-ind-claim-en huggingface dataset:
A compound represented by the following general formula (1 A ): wherein the solid lines represent a single bonds and the double lines represent double bonds, C represents a carbon atom, H represents a hydrogen atom and N represents a nitrogen atom, each of R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 , and R 15 independently represents a group selected from the group consisting of a hydrogen atom, an alkyl group, a cycloalkyl group, an aryl group, and an aralkyl group, and G represents a group selected from the group consisting of a monovalent group represented by the following general formula (G P ) and a monovalent group represented by the following general formula (G S ): wherein the solid lines represent a single bonds, a dotted line represents a coordinate bond and a solid line intersected by a wavy line represents a bond to an adjacent atom, P represents a phosphorus atom, L represents a lone electron pair or a boron trihydride, each of R 1 and R 2 independently represents a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group that may have a substituent, an aryl group that may have a substituent, a heteroaryl group that may have a substituent, and an aralkyl group that may have a substituent, and R 1 and R 2 may combine with each other to form a phosphorus atom-containing ring that may have a substituent; and wherein a solid line represents a single bond and a solid line intersected by a wavy line represents a bond to an adjacent atom, S represents a sulfur atom, and R 3 represents a group selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group that may have a substituent, an aryl group that may have a substituent, a heteroaryl group that may have a substituent, and an aralkyl group that may have a substituent.
A method of determining one or more properties of a hydraulic apparatus, the apparatus comprising a hydraulic machine and a hydraulic circuit region in hydraulic communication with the hydraulic machine, the hydraulic machine being controllable to displace pulses of hydraulic fluid into or out of the hydraulic circuit region, the hydraulic machine comprising a rotatable shaft , one or more working chambers having a volume which varies cyclically with rotation of the rotatable shaft, each working chamber having a low pressure valve which regulates the flow of hydraulic fluid between the working chamber and a low pressure line and a high pressure valve which regulates the flow of hydraulic fluid between the working chamber and a high pressure line , at least the low pressure valves being electronically controlled valves, the method comprising controlling the hydraulic machine by controlling the electronically controlled valves in phased relationship with cycles of working chamber volume to determine the net displacement of hydraulic fluid by each working chamber on each cycle of working chamber volume and thereby to displace one or more pulses of hydraulic fluid of known volume into or out of the hydraulic circuit region, the method characterised by making at least one measurement of the response of part of the hydraulic apparatus to the said one or more pulses and determining the one or more properties of the hydraulic apparatus from the measured response.
Braking device for braking a wire , wherein the braking device comprises a first clamping arm and a second clamping arm arranged on the first clamping arm movable relative to the first clamping arm , wherein the first clamping arm has a first holding region and the second clamping arm has a second holding region , wherein the second clamping arm is movable between a clamping position, in which the wire can be held between the first holding region and the second holding region , and a release position, in which the wire held between the first holding region and the second holding region can be released, wherein the second clamping arm is arranged on the first clamping arm pivotable relative to the first clamping arm , wherein the second clamping arm is pivotable between the clamping position and the release position, characterized in that the braking device comprises a drive device with a drive for moving the second clamping arm between the clamping position and the release position, wherein the braking device comprises a base body , wherein the first clamping arm is arranged on the base body movable relative to the base body , wherein the first clamping arm is mounted movable along a linear guide arranged on the base body , wherein the drive is arranged on the base body and comprises a drive shaft , wherein the second clamping arm is arranged mounted rotatable eccentrically on the drive shaft .
A therapeutic polypeptide comprising a cell wall targeting domain of a bacteriolysin fused to an immune function mediating component (IFMC) through a peptide linker, wherein the bacteriolysin is a bacteriocin selected from the group consisting of: Lysostaphin; Bacteriocin AS-48; Bacteriocin ColE9; adherence binding domain peptides of the pilin protein; an E-colicin; Autolysin; and the FyuA binding domain of pesticin fused to the N-terminus of T4 lysozyme, or wherein the bacteriolysin is a phage-encoded lysin selected from the group consisting of: Phage phiKZ gp144 lysin; φNM3 lysin; φ11 lysin; φ68, P17 lysin; φB30 lysin; φK, LysK lysin; φ MR11, MV-L lysin; φSs2, PlySs2bacteriophage lysin; OBPgp279 endolysin; PVP-SE1gp146 lysin; E201φ2-1gp229 lysin; Endolysin PlyL; Endolysin PlyG; LambdaSa2 cpl-7 lysin; lysogenic bacteriophage SM1 lysin; Endolysin CD27L; and mycobacteriophage Ms6 lysin, wherein the IFMC comprises an antibody or antigen-binding fragment thereof to a bacterial toxin or toxoid released by a bacterial target, wherein the antibody or antigen-binding fragment thereof lacks the ability to recognize a bacterial cell wall, and wherein the cell wall targeting domain of the therapeutic polypeptide targets the IFMC to the bacterial target. wherein the bacteriolysin is a bacteriocin selected from the group consisting of: Lysostaphin; Bacteriocin AS-48; Bacteriocin ColE9; adherence binding domain peptides of the pilin protein; an E-colicin; Autolysin; and the FyuA binding domain of pesticin fused to the N-terminus of T4 lysozyme, or wherein the bacteriolysin is a phage-encoded lysin selected from the group consisting of: Phage phiKZ gp144 lysin; φNM3 lysin; φ11 lysin; φ68, P17 lysin; φB30 lysin; φK, LysK lysin; φ MR11, MV-L lysin; φSs2, PlySs2bacteriophage lysin; OBPgp279 endolysin; PVP-SE1gp146 lysin; E201φ2-1gp229 lysin; Endolysin PlyL; Endolysin PlyG; LambdaSa2 cpl-7 lysin; lysogenic bacteriophage SM1 lysin; Endolysin CD27L; and mycobacteriophage Ms6 lysin, wherein the IFMC comprises an antibody or antigen-binding fragment thereof to a bacterial toxin or toxoid released by a bacterial target, wherein the antibody or antigen-binding fragment thereof lacks the ability to recognize a bacterial cell wall, and wherein the cell wall targeting domain of the therapeutic polypeptide targets the IFMC to the bacterial target.
A fork sensor housing , wherein a transmission module housing and a reception module housing are arranged in parallel and spaced apart; wherein the transmission module housing and the reception module housing are mechanically connected to at least one mechanical connection element composed of metal; wherein the mechanical connection element is arranged transversely to the transmission module housing and transversely to the reception module housing , and at least one electrical connection element and/or an optical connection element is/are arranged between the transmission module housing and the reception module housing , whereby a U-shaped fork sensor housing of modular design is formed, characterized in that the mechanical connection element is formed as a bent sheet metal part and is configured in U shape, with a bend of the bent sheet metal part being provided at a lower side, at an inner side, at an outer side, or at an upper side of the bent sheet metal part.
An electrode for a nonaqueous electrolyte secondary cell having a collector and an active material layer formed on a surface of the collector, wherein the active material layer contains an active material, a binder and a graphite material, characterized in that : the active material comprises SiOx particles whose surfaces are bonded with an organic material having one or more functional groups selected from a group consisting of a phenylamino group, an imidazole group and an amino group, wherein x is 1.5 or less; and the binder is composed of sodium polyacrylate and optionally a water-soluble polymer made of acrylic acid. the active material comprises SiOx particles whose surfaces are bonded with an organic material having one or more functional groups selected from a group consisting of a phenylamino group, an imidazole group and an amino group, wherein x is 1.5 or less; and the binder is composed of sodium polyacrylate and optionally a water-soluble polymer made of acrylic acid.
A system to monitor a user for an opioid overdose event, the system comprising a mobile computing device having software instructions storable on a memory of the mobile computing device , wherein the mobile computing device further includes one or more hardware processors, wireless communication circuitry, a touchscreen display, a speaker, a camera, and a microphone, the software instructions causing the one or more hardware processors to: receive representations of images from the camera and receive representations of sounds from the microphone; analyze the representations of images and analyze representations of sounds to determine respiratory distress; determine an opioid overdose event is occurring or will soon occur based on the analyzed representations of the images and the analyzed representations of the sounds; present a request for user input on the touchscreen display based on the determined opioid overdose; generate an escalating alarm with the speaker; and transmit wirelessly notifications of the opioid overdose event to one or more recipients based on a failure to receive the user input. receive representations of images from the camera and receive representations of sounds from the microphone; analyze the representations of images and analyze representations of sounds to determine respiratory distress; determine an opioid overdose event is occurring or will soon occur based on the analyzed representations of the images and the analyzed representations of the sounds; present a request for user input on the touchscreen display based on the determined opioid overdose; generate an escalating alarm with the speaker; and transmit wirelessly notifications of the opioid overdose event to one or more recipients based on a failure to receive the user input.
A base station configured to operate in accordance with a periodically repeated synchronization period , wherein the synchronization period comprises a plurality of successive pilot slots , the pilot slots being associated with groups of base stations in a one-to-one relationship, wherein the base station is configured to be a member of a first group among the groups of base stations and to transmit, in each repetition of the synchronization period , one or more pilot signals in the pilot slot associated with the first group , characterized in that the plurality of successive pilot slots includes one or more pilot slots that each overlap partly with their respective predecessor. wherein the synchronization period comprises a plurality of successive pilot slots , the pilot slots being associated with groups of base stations in a one-to-one relationship, wherein the base station is configured to be a member of a first group among the groups of base stations and to transmit, in each repetition of the synchronization period , one or more pilot signals in the pilot slot associated with the first group , characterized in that the plurality of successive pilot slots includes one or more pilot slots that each overlap partly with their respective predecessor.
A system for visualization, the system comprising: a probe comprising a plurality of position transducers and a voltage contact; a processor, the processor configured to: receive an input of a plurality of measured coordinates of a respective plurality of position transducers of a probe inside a body of a subject; receive a measured voltage measurement output by the probe; determine a cost function based on a model of known mechanical properties of the probe compared to the measured coordinates with respect to shapes that can be assumed by the probe in the body and further based on an expected voltage value compared to the measured voltage measurement; select a shape based on the cost function; and generate corrected coordinates of the plurality of position transducers of the probe based on the shape. a probe comprising a plurality of position transducers and a voltage contact; a processor, the processor configured to: receive an input of a plurality of measured coordinates of a respective plurality of position transducers of a probe inside a body of a subject; receive a measured voltage measurement output by the probe; determine a cost function based on a model of known mechanical properties of the probe compared to the measured coordinates with respect to shapes that can be assumed by the probe in the body and further based on an expected voltage value compared to the measured voltage measurement; select a shape based on the cost function; and generate corrected coordinates of the plurality of position transducers of the probe based on the shape. receive an input of a plurality of measured coordinates of a respective plurality of position transducers of a probe inside a body of a subject; receive a measured voltage measurement output by the probe; determine a cost function based on a model of known mechanical properties of the probe compared to the measured coordinates with respect to shapes that can be assumed by the probe in the body and further based on an expected voltage value compared to the measured voltage measurement; select a shape based on the cost function; and generate corrected coordinates of the plurality of position transducers of the probe based on the shape.
An inkjet nozzle comprising an aperture with a noncircular opening defined by a polynomial equation characterized in that : the polynomial equation has a general form of: (DX 2 + CY 2 + A 2 ) 2 -4A 2 X 2 = B 4 , where A, B, C and D are constants which define the shape of the polynomial; and the aperture comprises two elliptical lobes and two protrusions extending inward towards the center of the aperture to form a throat between the elliptical lobes , the throat being configured to restrict fluid flow through a central portion of the aperture ; and wherein the shape of the aperture is mathematically continuous and mathematically smooth. the polynomial equation has a general form of: (DX 2 + CY 2 + A 2 ) 2 -4A 2 X 2 = B 4 , where A, B, C and D are constants which define the shape of the polynomial; and the aperture comprises two elliptical lobes and two protrusions extending inward towards the center of the aperture to form a throat between the elliptical lobes , the throat being configured to restrict fluid flow through a central portion of the aperture ; and wherein the shape of the aperture is mathematically continuous and mathematically smooth.
A robotic work tool comprising a cutting device , a first body part (140-1), a second body part (140-2) and at least one navigation sensor being configured to receive a control signal , wherein at least one of the at least one navigation sensor is arranged on the second body part (140-2) and the cutting device is arranged on the first body part (140-1), the robotic work tool being characterised in that it is configured to rotate the second body part (140-2) in relation to the first body part (140-1), determine that said control signal is not reliably received and in response thereto rotate the second body part (140-2) in a first direction to attempt to regain reliable reception of the control signal . rotate the second body part (140-2) in relation to the first body part (140-1), determine that said control signal is not reliably received and in response thereto rotate the second body part (140-2) in a first direction to attempt to regain reliable reception of the control signal .
A cooling element comprising: a plurality of tubes having internal longitudinal walls which separate substantially parallel fluid channel sections from each other, a first fluid distribution element (13, 13', 13") in a first end of the cooling element and a second fluid distribution element (17, 17") in a second end of the cooling element for providing loops interconnecting predetermined ones of the substantially parallel fluid channel sections to each other in order to obtain a fluid channel with a meandering shape and a capillary dimension for providing a pulsating heat pipe, a first evaporator for receiving heat from electric components and for passing the heat into fluid in the fluid channel , and a first condenser for receiving fluid from the first evaporator via the fluid channel and for cooling fluid in the fluid channel, the first condenser separating the first evaporator from the loops in the first end of the cooling element , characterized in that an adiabatic zone , having a length shorter than the length of the first condenser , where the substantially parallel fluid channel sections extend through without thermal contact between their walls and any fins or evaporators and where the temperature of the fluid in the fluid channel remains unchanged, or a cooling zone with a second condenser cooling fluid in the fluid channel , separates the first evaporator from the loops in the second end of the fluid channel. a plurality of tubes having internal longitudinal walls which separate substantially parallel fluid channel sections from each other, a first fluid distribution element (13, 13', 13") in a first end of the cooling element and a second fluid distribution element (17, 17") in a second end of the cooling element for providing loops interconnecting predetermined ones of the substantially parallel fluid channel sections to each other in order to obtain a fluid channel with a meandering shape and a capillary dimension for providing a pulsating heat pipe, a first evaporator for receiving heat from electric components and for passing the heat into fluid in the fluid channel , and a first condenser for receiving fluid from the first evaporator via the fluid channel and for cooling fluid in the fluid channel, the first condenser separating the first evaporator from the loops in the first end of the cooling element , characterized in that an adiabatic zone , having a length shorter than the length of the first condenser , where the substantially parallel fluid channel sections extend through without thermal contact between their walls and any fins or evaporators and where the temperature of the fluid in the fluid channel remains unchanged, or a cooling zone with a second condenser cooling fluid in the fluid channel , separates the first evaporator from the loops in the second end of the fluid channel.
An apparatus for releasably mounting access control components for a door lock to a door , the apparatus comprising: at least one first wire connector element ; first means for mounting the at least one first wire connector element to the door ; at least one second wire connector element releasably connected to the at least one first wire connector element ; second means for mounting combustible material to the at least one second wire connector element; and means for urging the second means for mounting away from the first means for mounting when a predetermined temperature is exceeded, causing the at least one first wire connector element and the at least one second wire connector element to separate and disconnect. at least one first wire connector element ; first means for mounting the at least one first wire connector element to the door ; at least one second wire connector element releasably connected to the at least one first wire connector element ; second means for mounting combustible material to the at least one second wire connector element; and means for urging the second means for mounting away from the first means for mounting when a predetermined temperature is exceeded, causing the at least one first wire connector element and the at least one second wire connector element to separate and disconnect.
A method of producing a cryogel-based multicompartment three-dimensional scaffold, said method comprising the steps of: a) providing a first frozen polymeric layer on a refrigerated support kept at subzero temperature; b) providing subsequent polymeric layers to obtain a stack of polymeric layers by modulating the subzero temperature of the refrigerated support; c) optionally incubating the final polymeric structure at subzero temperature; and d) placing the produced cryogel at a temperature above 0°C wherein each subsequent layer: (i) is deposited on the previous layer after freezing of said previous layer; ii) is deposited on the previous layer before the complete polymerization of said previous layer; and iii) is deposited with a temperature higher than the freezing temperature of the previously deposited layer. a) providing a first frozen polymeric layer on a refrigerated support kept at subzero temperature; b) providing subsequent polymeric layers to obtain a stack of polymeric layers by modulating the subzero temperature of the refrigerated support; c) optionally incubating the final polymeric structure at subzero temperature; and d) placing the produced cryogel at a temperature above 0°C wherein each subsequent layer: (i) is deposited on the previous layer after freezing of said previous layer; ii) is deposited on the previous layer before the complete polymerization of said previous layer; and iii) is deposited with a temperature higher than the freezing temperature of the previously deposited layer. (i) is deposited on the previous layer after freezing of said previous layer; ii) is deposited on the previous layer before the complete polymerization of said previous layer; and iii) is deposited with a temperature higher than the freezing temperature of the previously deposited layer.
A submerged burner for a furnace for the melting of glass or of rock, said burner being, at least partially and preferably completely, formed of an alloy exhibiting the following composition, as percentage by weight of the alloy: Cr 11% to 22% Ni 5% to 20% Mo less than 6%, Mn less than 3%, Si less than 2%, N less than 0.2%, P less than 0.1%, S less than 0.05%, the remainder being formed of iron, carbon and unavoidable impurities, said alloy being characterized in that the Cr/C ratio by weight in said alloy is greater than 500.