mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing backup communication, comprising: determining when Ethernet communication using a primary communication mode of an Ethernet cable and an Ethernet gateway coupled to an Ethernet switch and a patient call device is non-functional, the Ethernet cable , the Ethernet gateway , the Ethernet switch , and the patient call device interconnected through a hospital local area network ; receiving, at a backup communication system, BCS, processor coupled to the patient call device , a first call signal from the patient call device ; and transmitting, from the BCS processor , a second call signal to a monitoring device , said second call signal representative of said first call signal; wherein the first call signal is transmitted on a secondary communication mode of the Ethernet cable , the secondary communication mode being different from the primary communication mode of said Ethernet cable . determining when Ethernet communication using a primary communication mode of an Ethernet cable and an Ethernet gateway coupled to an Ethernet switch and a patient call device is non-functional, the Ethernet cable , the Ethernet gateway , the Ethernet switch , and the patient call device interconnected through a hospital local area network ; receiving, at a backup communication system, BCS, processor coupled to the patient call device , a first call signal from the patient call device ; and transmitting, from the BCS processor , a second call signal to a monitoring device , said second call signal representative of said first call signal; wherein the first call signal is transmitted on a secondary communication mode of the Ethernet cable , the secondary communication mode being different from the primary communication mode of said Ethernet cable .
Connection method for inexpensive control of an electronic motor by means of single cable technology with high protection class, where the plug connector technology known per se is combined with the terminal box technology known per se, and the single cable is ready-made with plug connectors without high protection class, and the plug connectors are inserted, with said terminal box of said electronic motor opened, into associated sockets , and said ready-made single cable is placed into a combined strain relief and earthing shell provided in said terminal box , and a terminal box base (3.1) is firmly closed with a terminal box cover , characterized in that said plug connectors are kept in position in their sockets inside said terminal box by the screw connection of said terminal box cover to said terminal box base (3.1), in that the connection resulting from said plug connectors and said sockets is based on printed circuit board technology, where at the end of said single cable , at which individual conductors exit a sheath of said single cable , the plug connectors are attached and arranged inside plastic boxes at a 90° angle to the longitudinal extent of said single cable , and where at the other end of the interior of the terminal box a printed circuit board manufactured by printed circuit board technology is arranged with a first row of sockets for connection of a high-voltage supply (400 V to 800 V) and a second row of sockets , for connection of a 24V low-voltage supply, and is closer to the combined strain relief and earthing shell , and in that said single cable is a hybrid cable in which the power supply, the electronics supply and the communication are combined in one cable.
A sound absorbing material, comprising: a protective layer; a first substrate layer having a communication hole; and a second substrate layer having a communication hole, in this order, wherein a flexibility-toughness value of the protective layer, which is represented by Formula (I) described below, is 1 to 75 [MPa/μm]. Flexibility-Toughness Value = (Tensile Modulus [MPa] of Protective Layer at 25°C × Shore A Hardness of Protective Layer)/Protective Layer Thickness [μm] (I), wherein the Tensile Modulus and the Shore A Hardness are measured according to the description. a protective layer; a first substrate layer having a communication hole; and a second substrate layer having a communication hole, in this order, wherein a flexibility-toughness value of the protective layer, which is represented by Formula (I) described below, is 1 to 75 [MPa/μm]. Flexibility-Toughness Value = (Tensile Modulus [MPa] of Protective Layer at 25°C × Shore A Hardness of Protective Layer)/Protective Layer Thickness [μm] (I), wherein the Tensile Modulus and the Shore A Hardness are measured according to the description.
A method of communicating with a medical device implanted within a patient comprising: receiving, at the medical device via electrodes connected to the patient, a conducted communication signal, wherein the conducted communication signal comprises a signal component and a noise component; and adjusting, by the medical device, a receive threshold based at least in part on an amplitude of the received conducted communication signal, wherein the receive threshold is adjusted for at least partially reducing an amplitude of the noise component of the conducted communication signal, wherein adjusting the receive threshold based at least in part on the amplitude of the received conducted communication signal comprises: counting, by the medical device, a number of pulses in the conducted communication signal having an amplitude greater than the receive threshold during a communication window; determining, by the medical device, whether the counted number of pulses exceeds a pulse count threshold; and after determining the counted number of pulses exceeds the pulse count threshold, increasing, by the medical device, the receive threshold; wherein the pulse count threshold is set to above a maximum number of pulses in a valid message. receiving, at the medical device via electrodes connected to the patient, a conducted communication signal, wherein the conducted communication signal comprises a signal component and a noise component; and adjusting, by the medical device, a receive threshold based at least in part on an amplitude of the received conducted communication signal, wherein the receive threshold is adjusted for at least partially reducing an amplitude of the noise component of the conducted communication signal, wherein adjusting the receive threshold based at least in part on the amplitude of the received conducted communication signal comprises: counting, by the medical device, a number of pulses in the conducted communication signal having an amplitude greater than the receive threshold during a communication window; determining, by the medical device, whether the counted number of pulses exceeds a pulse count threshold; and after determining the counted number of pulses exceeds the pulse count threshold, increasing, by the medical device, the receive threshold; wherein the pulse count threshold is set to above a maximum number of pulses in a valid message. counting, by the medical device, a number of pulses in the conducted communication signal having an amplitude greater than the receive threshold during a communication window; determining, by the medical device, whether the counted number of pulses exceeds a pulse count threshold; and after determining the counted number of pulses exceeds the pulse count threshold, increasing, by the medical device, the receive threshold; wherein the pulse count threshold is set to above a maximum number of pulses in a valid message.
Structure-borne sound actuator for a motor vehicle , which comprises an electro-dynamic excitation unit , and the excitation unit is formed with an excitation side configured to excite an acoustic body , characterized in that an acoustically rigid intermediate element is secured to the excitation side and the intermediate element has a coupling side , which faces away from the excitation side , and is configured for coupling to the acoustic body , the intermediate element being planar in design and a surface area of the coupling side being greater than a surface area of the excitation side , characterized in that the intermediate element is designed with an initial tension and the coupling side is curved in the decoupled state. an acoustically rigid intermediate element is secured to the excitation side and the intermediate element has a coupling side , which faces away from the excitation side , and is configured for coupling to the acoustic body , the intermediate element being planar in design and a surface area of the coupling side being greater than a surface area of the excitation side , characterized in that the intermediate element is designed with an initial tension and the coupling side is curved in the decoupled state.
An insulating assembly for installation around a roof window frame in an roof structure including roofing and roofing supporting structure, said insulating assembly comprising a plurality of insulating assembly pieces , and wherein the window frame has a plurality of frame members , each frame member having an interior side facing the interior of the building in the mounted state, an exterior side facing the exterior of the building in the mounted state, an inner side and an outer side , an interior-exterior dimension being defined by a direction extending from the interior side to the exterior side in the mounted condition, where at least one first insulating assembly piece made of a low thermal-conductivity material such as polyethylene foam, mineral wool, cellulose, polyurethane foam or foamed ABS is hinged to at least one second insulating assembly piece , in such a manner that the angle between said insulating assembly pieces can be changed within a plane substantially parallel to said roof structure when one insulating frame piece is arranged on the roof structure aligned with a side of an opening in said roof structure and/or is abutting an outer side of a frame member of said window frame, and where the at least one first insulating assembly piece is hinged to the at least one second insulating assembly piece by a hinge comprising moving components of the piano, spring, barrel, pivot, mortise, case, concealed, butterfly, flag, strap, or H type or by a hinge where a material with higher compressibility than that of the material of which the insulating assembly pieces are made is inserted in a groove, said groove lying substantially perpendicular to the largest dimension of the insulating assembly piece. where at least one first insulating assembly piece made of a low thermal-conductivity material such as polyethylene foam, mineral wool, cellulose, polyurethane foam or foamed ABS is hinged to at least one second insulating assembly piece , in such a manner that the angle between said insulating assembly pieces can be changed within a plane substantially parallel to said roof structure when one insulating frame piece is arranged on the roof structure aligned with a side of an opening in said roof structure and/or is abutting an outer side of a frame member of said window frame, and where the at least one first insulating assembly piece is hinged to the at least one second insulating assembly piece by a hinge comprising moving components of the piano, spring, barrel, pivot, mortise, case, concealed, butterfly, flag, strap, or H type or by a hinge where a material with higher compressibility than that of the material of which the insulating assembly pieces are made is inserted in a groove, said groove lying substantially perpendicular to the largest dimension of the insulating assembly piece.
A system for monitoring aircraft air via a diagnostic test comprising: a vessel having an inlet , a conical main body containing: a reagent fluid for extracting particles from the air coating an inner surface on the conical main body, and an outlet , wherein the outlet is positioned within at least one of an outlet flow path or a recirculation flow path of an aircraft; and wherein the system further comprises at least one of an outflow valve positioned in the outlet flow path downstream from the vessel or a HEPA filter positioned in the recirculation flow path downstream from the vessel and wherein the reagent fluid includes a customized mixture for the targeted pathogen or contaminant and diagnostic test; the system further containing a buffer; and wherein the reagent fluid includes molecular grade sterile water and a range of components for nucleic acid protection and conservation, and the buffer composition and pH range are varied depending on quality and quantity of samples to be harvested. a vessel having an inlet , a conical main body containing: a reagent fluid for extracting particles from the air coating an inner surface on the conical main body, and an outlet , wherein the outlet is positioned within at least one of an outlet flow path or a recirculation flow path of an aircraft; and wherein the system further comprises at least one of an outflow valve positioned in the outlet flow path downstream from the vessel or a HEPA filter positioned in the recirculation flow path downstream from the vessel and wherein the reagent fluid includes a customized mixture for the targeted pathogen or contaminant and diagnostic test; the system further containing a buffer; and wherein the reagent fluid includes molecular grade sterile water and a range of components for nucleic acid protection and conservation, and the buffer composition and pH range are varied depending on quality and quantity of samples to be harvested.
A decorative sheet comprising: a releasing layer , a pressure-sensitive adhesive layer disposed on a surface of the releasing layer , and a skin layer , having a resin, disposed on a surface of the pressure-sensitive adhesive layer , wherein the releasing layer includes a shape-holding layer , having a resin, characterized in that both the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the shape-holding layer and the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the skin layer are 0/1000 to 9/1000, and both the softening start temperature, measured in conformity with JIS K 7196, of the resin of the shape-holding layer and the softening start temperature, measured in conformity with JIS K 7196, of the resin of the skin layer are 60 °C or more and 120 °C or less, wherein the shape-holding layer includes an acrylonitrile butadiene styrene copolymer, wherein the skin layer includes polyvinyl chloride. a releasing layer , a pressure-sensitive adhesive layer disposed on a surface of the releasing layer , and a skin layer , having a resin, disposed on a surface of the pressure-sensitive adhesive layer , wherein the releasing layer includes a shape-holding layer , having a resin, characterized in that both the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the shape-holding layer and the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the skin layer are 0/1000 to 9/1000, and both the softening start temperature, measured in conformity with JIS K 7196, of the resin of the shape-holding layer and the softening start temperature, measured in conformity with JIS K 7196, of the resin of the skin layer are 60 °C or more and 120 °C or less, wherein the shape-holding layer includes an acrylonitrile butadiene styrene copolymer, wherein the skin layer includes polyvinyl chloride.
A display device comprising: an electronic paper display imageable by receiving charges on an imaging surface of the electronic paper display; a counter-electrode opposite to the imaging surface of the electronic paper display; a floating electrode capacitively coupled to the counter-electrode; and a patterned layer on a first side of the floating electrode to provide mechanical protection for the floating electrode while enabling an air discharge to the floating electrode; wherein the patterned layer covers between 5% and 95% of the first side of the floating electrode, such that a portion of the first side of the floating electrode remains exposed, and wherein the first side of the floating electrode faces away from the electronic paper display and a second side of the floating electrode faces towards the electronic paper display. an electronic paper display imageable by receiving charges on an imaging surface of the electronic paper display; a counter-electrode opposite to the imaging surface of the electronic paper display; a floating electrode capacitively coupled to the counter-electrode; and a patterned layer on a first side of the floating electrode to provide mechanical protection for the floating electrode while enabling an air discharge to the floating electrode; wherein the patterned layer covers between 5% and 95% of the first side of the floating electrode, such that a portion of the first side of the floating electrode remains exposed, and wherein the first side of the floating electrode faces away from the electronic paper display and a second side of the floating electrode faces towards the electronic paper display.
A displacement sensor comprising: a resistive element (312; 412); and a wiper element (314; 414); wherein the wiper element is separated from the resistive element in response to the displacement sensor being in a parked mode and wherein the wiper element is in sliding electrical contact with the resistive element in response to the displacement sensor being in a sensing mode; and characterized in that the resistive element comprises a notch and the wiper element comprises a wiper head (315; 415), wherein the wiper head is disposed in the notch in the parked mode such that the wiper head is separated from the resistive element. a resistive element (312; 412); and a wiper element (314; 414); wherein the wiper element is separated from the resistive element in response to the displacement sensor being in a parked mode and wherein the wiper element is in sliding electrical contact with the resistive element in response to the displacement sensor being in a sensing mode; and characterized in that the resistive element comprises a notch and the wiper element comprises a wiper head (315; 415), wherein the wiper head is disposed in the notch in the parked mode such that the wiper head is separated from the resistive element.
Peptide comprising or consisting of an amino acid sequence according to formula I X 1 -X 2 -X 3 -X 4 -X 5 -(A) m -X 6 -X 7 -(X 8 ) n -C (I) wherein X 1 is C or S, X 2 is L or A, X 3 is A, V or L, X 4 is F or Y, X 5 is Y or F, X 6 is C or R, X 7 is F or L, X 8 is W or A and m and n are independently 0 or 1 or a variant thereof, wherein the peptide consists of 8 to 40 amino acid residues and the variant comprises one to five conservative amino acid substitutions. wherein X 1 is C or S, X 2 is L or A, X 3 is A, V or L, X 4 is F or Y, X 5 is Y or F, X 6 is C or R, X 7 is F or L, X 8 is W or A and m and n are independently 0 or 1 or a variant thereof, wherein the peptide consists of 8 to 40 amino acid residues and the variant comprises one to five conservative amino acid substitutions.
A rotation angle detecting apparatus , comprising a shaft portion space formed in a rotation shaft , a bearing holder space formed in a bearing holder concentrically with said shaft portion space, a first condenser lens accommodated in said shaft portion space arranged such that a shaft center of said shaft portion space substantially coincides with an optical axis , a second condenser lens provided in said bearing holder space and provided to face said first condenser lens arranged such that a shaft center of said bearing holder space substantially coincides with an optical axis , a detection pattern provided at a focal position of one of said first condenser lens and said second condenser lens, an image sensor provided at a focal position of the other of said first condenser lens and said second condenser lens, and an arithmetic unit for calculating an angle displacement of said rotation shaft based on a signal from said image sensor, wherein a magnifying power of each of said first condenser lens and said second condenser lens is a magnifying power of 1, and said first condenser lens and the second condenser lens have the same focal length and are arranged to project an image of said detection pattern onto said image sensor in a one-to-one relationship, said detection pattern has an angle detection pattern in which bar-like line segments extending in a radial direction are arranged at a predetermined angle pitch and a ring-like track is formed by said bar-like line segments, and a reference designation pattern for indicating a reference position of said angle detection pattern, and wherein said arithmetic unit carries out a total circumferential scanning on said track with a predetermined radius with a center of said angle detection pattern as the center in regard to a projection image of said detection pattern obtained by said image sensor, extracts a frequency component, carries out a scanning of said reference designation pattern, and calculates said angle displacement of said rotation shaft based on a phase difference of said frequency component and the number of said line segments of said detection pattern corresponding to a change in position of said reference designation pattern.
A method performed by a terminal in a communication system, the method comprising: receiving , from a base station , a radio resource control, RRC, message including configuration information associated with a type 2 configured grant, the configuration information including an index of the type 2 configured grant, wherein the index of the type 2 configured grant is unique within a cell group; receiving, from the base station, control information indicating activation or deactivation of the type 2 configured grant; and transmitting, to the base station, a medium access control, MAC, control element, CE, including a field associated with the index of the type 2 configured grant, wherein the field indicates whether the activation or the deactivation of the type 2 configured grant is confirmed. receiving , from a base station , a radio resource control, RRC, message including configuration information associated with a type 2 configured grant, the configuration information including an index of the type 2 configured grant, wherein the index of the type 2 configured grant is unique within a cell group; receiving, from the base station, control information indicating activation or deactivation of the type 2 configured grant; and transmitting, to the base station, a medium access control, MAC, control element, CE, including a field associated with the index of the type 2 configured grant, wherein the field indicates whether the activation or the deactivation of the type 2 configured grant is confirmed.