mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing adhesives comprising: obtaining an actinic radiation-polymerizable adhesive precursor composition disposed on a major surface of an actinic radiation-transparent substrate; irradiating a first portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a first irradiation dosage to form a first adhesive; moving the actinic radiation-transparent substrate; and irradiating a second portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a second irradiation dosage to form a second adhesive, wherein the first adhesive and the second adhesive are individual adhesives separated from each other by approximately the distance the actinic radiation-transparent substrate was moved. obtaining an actinic radiation-polymerizable adhesive precursor composition disposed on a major surface of an actinic radiation-transparent substrate; irradiating a first portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a first irradiation dosage to form a first adhesive; moving the actinic radiation-transparent substrate; and irradiating a second portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a second irradiation dosage to form a second adhesive, wherein the first adhesive and the second adhesive are individual adhesives separated from each other by approximately the distance the actinic radiation-transparent substrate was moved.
A method of controlling one or more sensors for capturing visual data , location data or both, the sensors being placed on a moving vehicle , to determine information relating to surroundings of the vehicle, the method comprising: detecting, by one or more computing devices , a first surface at a first location and a second surface at a second location using the one or more sensors; classifying, by the one or more computing devices, the second surface as a target of interest; determining, by the one or more computing device, one or more timing characteristics of the one or more sensors for capturing data based on a pose or motion of the one or more sensors relative to the first location of the first surface and the second location of the second surface; controlling, by the one or more computing devices, the one or more sensors to capture data based on the determined one or more timing characteristics; and the method further comprising: classifying, by the one or more computing devices, the first surface as an occluder when the first location is determined to be or will be between a location of the one or more sensors and the second location; wherein determining one or more timing characteristics for capturing data comprises determining one or more sensor trigger locations at which data should be captured by the one or more sensors so that at least part of the occluder is not captured by the one or more sensors; and wherein controlling the one or more sensors to capture data comprises controlling the one or more sensors to capture data according to the determined one or more trigger locations. detecting, by one or more computing devices , a first surface at a first location and a second surface at a second location using the one or more sensors; classifying, by the one or more computing devices, the second surface as a target of interest; determining, by the one or more computing device, one or more timing characteristics of the one or more sensors for capturing data based on a pose or motion of the one or more sensors relative to the first location of the first surface and the second location of the second surface; controlling, by the one or more computing devices, the one or more sensors to capture data based on the determined one or more timing characteristics; and classifying, by the one or more computing devices, the first surface as an occluder when the first location is determined to be or will be between a location of the one or more sensors and the second location; wherein determining one or more timing characteristics for capturing data comprises determining one or more sensor trigger locations at which data should be captured by the one or more sensors so that at least part of the occluder is not captured by the one or more sensors; and wherein controlling the one or more sensors to capture data comprises controlling the one or more sensors to capture data according to the determined one or more trigger locations.
Metering device for metering and supply of media via a fluid line to a plurality of target devices , in particular to a plurality of commercial textile washing machines, wherein the metering device is connected to at least one container , which is filled with a medium, and wherein a control unit is assigned to the metering device, said control unit carrying out a metering process after receiving a request signal from one of the target devices, wherein the metering device has at least one junction point of the fluid line, which provides a plurality of line branches , wherein the junction point is formed by a region of the fluid line, in which a section of the fluid line is divided over at least two fluid line branches, and wherein the metering device has a plurality of inlets , which can each be switchably brought into communicative connection with the junction point by means of the control unit with the aid of an actuator , wherein each inlet is connected to a container and wherein a plurality of containers are provided, which are filled with different media, wherein each line branch connects the junction point to a target device, wherein one pump , which can be activated by the control unit of the metering device, is assigned to each line branch, and wherein the control unit, to carry out the metering process, by means of activating and operating the respective pump draws a previously-determined volume of medium from a determined container and delivers this volume to the respective target device.
A safety device for a pre-filled syringe , comprising: - a hollow outer body (1.3) receiving a support body (1.2) having two side walls opposing each other, wherein the outer body (1.3) slides relative to the support body (1.2) to inject a medication contained in a pre-filled syringe through a hypodermic needle and to release and retract the pre-filled syringe retained within the safety device; wherein - a guide track (1.2.4) is formed into at least one side wall (1.2.1) of the support body (1.2), - a guide rail (1.3.5) is formed into at least one inner surface of the outer body (1.3) facing the side wall of the support body with the guide track, - a guide pin (1.4.6) is movable within and along the guide track (1.2.4) in a plane defined by the side wall (1.2.1) when the outer body (1.3) is slid relative to the support body (1.2), - the guide pin (1.4.6) is prevented from returning to its start position by the guide rail (1.3.5) so that a re-usage of the safety device is prevented, and - the guide rail (1.3.5) is adapted to abut against the guide pin (1.4.6) to guide the movement of the guide pin (1.4.6) along the guide track (1.2.4) when the outer body (1.3) is slid relative to the support body (1.2), characterized in that a release collar (1.4) is provided which is non-rotatably arranged within and movable relative to the support body (1.2), wherein the guide pin (1.4.6) extends from a flexible arm (1.4.5) of the release collar (1.4). - a hollow outer body (1.3) receiving a support body (1.2) having two side walls opposing each other, wherein the outer body (1.3) slides relative to the support body (1.2) to inject a medication contained in a pre-filled syringe through a hypodermic needle and to release and retract the pre-filled syringe retained within the safety device; wherein - a guide track (1.2.4) is formed into at least one side wall (1.2.1) of the support body (1.2), - a guide rail (1.3.5) is formed into at least one inner surface of the outer body (1.3) facing the side wall of the support body with the guide track, - a guide pin (1.4.6) is movable within and along the guide track (1.2.4) in a plane defined by the side wall (1.2.1) when the outer body (1.3) is slid relative to the support body (1.2), - the guide pin (1.4.6) is prevented from returning to its start position by the guide rail (1.3.5) so that a re-usage of the safety device is prevented, and - the guide pin (1.4.6) is prevented from returning to its start position by the guide rail (1.3.5) so that a re-usage of the safety device is prevented, and - the guide rail (1.3.5) is adapted to abut against the guide pin (1.4.6) to guide the movement of the guide pin (1.4.6) along the guide track (1.2.4) when the outer body (1.3) is slid relative to the support body (1.2), characterized in that a release collar (1.4) is provided which is non-rotatably arranged within and movable relative to the support body (1.2), wherein the guide pin (1.4.6) extends from a flexible arm (1.4.5) of the release collar (1.4).
A plug-in connector , the plug-in connector comprising a contact element with a connector element and at least one terminal connector , a cooling jacket with a first fluid port adapted for fluidically connecting the cooling jacket with a first tube and a second fluid port adapted for fluidically connecting the cooling jacket with a second tube , wherein the cooling jacket further comprises a connecting sleeve for accommodating the contact element , wherein the cooling jacket is manufactured in one piece and wherein the cooling jacket is made of a polymeric material, characterised in that an outer surface of the contact element is encompassed by the connecting sleeve in a fluid-tight manner, wherein the connector element is at least partly exposed to the outside of the cooling jacket and wherein the at least one terminal connector is at least partly disposed in the interior of the cooling jacket , wherein the at least one terminal connector is configured for being electrically connected with at least one electrical wire that is introducible into the cooling jacket via at least one of the fluid ports. wherein via one of the first or second fluid ports , a flow of coolant is supplied to the cooling jacket , and wherein via the other of the first or second fluid ports , a flow of coolant is withdrawn from the cooling jacket .
A contact terminal assembled from at least two parts, comprising a base part , having a plurality of contact tongues , aligned along a mating axis (X), adapted to contact a male connector pin by contact surfaces on the plurality of contact tongues ; a sleeve adapted to be arranged at least partially over the base part , the sleeve having at least one spring element , wherein the at least one spring element is adapted to contact the plurality of contact tongues on a backside opposite to the contact surfaces side; wherein the at least one spring element comprises a first arm and a second arm and a flexible support structure in between, wherein the first arm and the second arm protrude from the sleeve , along the mating axis inside the sleeve, wherein the flexible support structure is meandering from the first arm to the second arm, characterized in that the flexible support structure extends in a zigzag shape perpendicular to the mating axis (X).
Method for determining the absolute carriage position (s x ) of a carriage of an electric linear direct drive , wherein the carriage can be moved along a guide in the direction of travel, wherein permanent magnets are arranged along the guide and wherein one or more electromagnets are arranged on the carriage so that when the electromagnets are energized, the carriage is driven, comprising the following steps: a) detecting a magnetic field characteristic of the permanent magnets in the carriage position (s x ) to be determined by means of at least one magnetic field sensor arranged on the carriage , b) retaining reference characteristics (1' to n') of the magnetic fields of the permanent magnets and of a carriage position (s 1 to s n ) associated with the relevant reference characteristic (1' to n'), c) ascertaining whether there is a correlation between the detected magnetic field characteristic and the respective reference characteristics (1' to n'), and d) when correlating the detected magnetic field characteristic with a reference characteristic (1' to n'), outputting the carriage position (s 1 to s n ) assigned to this reference characteristic (1' to n') as the absolute, instantaneous carriage position (s x ). a) detecting a magnetic field characteristic of the permanent magnets in the carriage position (s x ) to be determined by means of at least one magnetic field sensor arranged on the carriage , b) retaining reference characteristics (1' to n') of the magnetic fields of the permanent magnets and of a carriage position (s 1 to s n ) associated with the relevant reference characteristic (1' to n'), c) ascertaining whether there is a correlation between the detected magnetic field characteristic and the respective reference characteristics (1' to n'), and d) when correlating the detected magnetic field characteristic with a reference characteristic (1' to n'), outputting the carriage position (s 1 to s n ) assigned to this reference characteristic (1' to n') as the absolute, instantaneous carriage position (s x ).
A method for determining susceptibility to a simultaneous inhibitor against PARP (Poly ADP Ribose Polymerase) and Tankyrase, the method comprising the following steps of: (a) isolating nucleic acid molecules from collorectal cancer cells which have been taken from a patient with collorectal cancer (b) identifying genotypes of a p53 gene and an LIG4 (DNA ligase 4) gene in the nucleic acid molecule of the step (a), wherein, when the genotype of the p53 gene is a normal type and the genotype of the LIG4 gene is a mutant type, it is determined that the patient has susceptibility to a simultaneous inhibitor against PARP and Tankyrase, wherein, when the p53 gene comprises a nucleotide sequence of SEQ ID NO: 1, the genotype is the normal type and wherein, when the LIG4 gene is one or more sequence variants selected from the group consisting of a substitution of cytosine to thymine at position 8, a substitution of cytosine to thymine at position 26, a substitution of guanine to adenine at position 833 and a substitution of thymine to cytosine at position 1704 of SEQ ID NO: 2, the genotype is a mutant type. (a) isolating nucleic acid molecules from collorectal cancer cells which have been taken from a patient with collorectal cancer (b) identifying genotypes of a p53 gene and an LIG4 (DNA ligase 4) gene in the nucleic acid molecule of the step (a), wherein, when the genotype of the p53 gene is a normal type and the genotype of the LIG4 gene is a mutant type, it is determined that the patient has susceptibility to a simultaneous inhibitor against PARP and Tankyrase, wherein, when the p53 gene comprises a nucleotide sequence of SEQ ID NO: 1, the genotype is the normal type and wherein, when the LIG4 gene is one or more sequence variants selected from the group consisting of a substitution of cytosine to thymine at position 8, a substitution of cytosine to thymine at position 26, a substitution of guanine to adenine at position 833 and a substitution of thymine to cytosine at position 1704 of SEQ ID NO: 2, the genotype is a mutant type. identifying genotypes of a p53 gene and an LIG4 (DNA ligase 4) gene in the nucleic acid molecule of the step (a), wherein, when the genotype of the p53 gene is a normal type and the genotype of the LIG4 gene is a mutant type, it is determined that the patient has susceptibility to a simultaneous inhibitor against PARP and Tankyrase, wherein, when the p53 gene comprises a nucleotide sequence of SEQ ID NO: 1, the genotype is the normal type and wherein, when the LIG4 gene is one or more sequence variants selected from the group consisting of a substitution of cytosine to thymine at position 8, a substitution of cytosine to thymine at position 26, a substitution of guanine to adenine at position 833 and a substitution of thymine to cytosine at position 1704 of SEQ ID NO: 2, the genotype is a mutant type.
Method of deboning of a carcass leg part of a four legged slaughter animal, for removing meat from a bone of the carcass leg part , the method comprising the subsequent steps of: a) holding, by a support device , of the leg part by the lower end of the bone , or by a still lower part of the leg such as a foot , b) moving a meat removing device into a pre-cut, towards the bone , to a first starting position of the meat removing device , which pre-cut is a cut made along the circumference of the bone at, or at least near, a lower end of the bone so as to sever muscle fibers, c) executing by means of the meat removing device a first meat removing movement from the first starting position in a meat removing direction away from the support device along the bone to a first end position so that meat is removed from the bone , d) moving the meat removing device away from the bone , wherein meat which is in contact with the meat removing device is forced away from the bone and severs further meat from the bone , f) moving the meat removing device towards the bone to a second starting position , and g) executing by means of the meat removing device a second meat removing movement from the second starting position in the meat removing direction away from the support device along the bone to a second end position distanced further from the support device than the first end position so that further meat is removed from the bone , characterized in that, in between steps d) and f), the method comprises the step of: e) moving the meat removing device in a reposition direction towards the support device . a) holding, by a support device , of the leg part by the lower end of the bone , or by a still lower part of the leg such as a foot , b) moving a meat removing device into a pre-cut, towards the bone , to a first starting position of the meat removing device , which pre-cut is a cut made along the circumference of the bone at, or at least near, a lower end of the bone so as to sever muscle fibers, c) executing by means of the meat removing device a first meat removing movement from the first starting position in a meat removing direction away from the support device along the bone to a first end position so that meat is removed from the bone , d) moving the meat removing device away from the bone , wherein meat which is in contact with the meat removing device is forced away from the bone and severs further meat from the bone , f) moving the meat removing device towards the bone to a second starting position , and g) executing by means of the meat removing device a second meat removing movement from the second starting position in the meat removing direction away from the support device along the bone to a second end position distanced further from the support device than the first end position so that further meat is removed from the bone , characterized in that, in between steps d) and f), the method comprises the step of: e) moving the meat removing device in a reposition direction towards the support device .
A Fe-based shape memory alloy material, containing 25 atom% to 42 atom% of Mn, 9 atom% to 13 atom% of Al, 5 atom% to 12 atom% of Ni, and 5.1 atom% to 15 atom% of Cr, with the balance being Fe and unavoidable impurities.
A method of generating keying material for security purposes, said method comprising: performing an Authentication and Key Agreement procedure for authenticating a user terminal in a cellular access network, wherein a core network of the cellular access network comprises a Home Subscriber Server ; determining in the Home Subscriber Server upon receiving an indication in a request that the user terminal requires said keying material for use outside the cellular access network; responsive to said determining, notifying a Bootstrapping Server Function from the Home Subscriber Server that the user terminal requires said keying material for use outside the cellular access network; and generating modified session keys for use outside the cellular access network in the Home Subscriber Server , wherein said modified session keys are also generated in the user terminal , both the Home Subscriber Server and the user terminal using a serving network identity comprised in said request when generating the modified session keys, and wherein said modified session keys are generated further using said keying material. performing an Authentication and Key Agreement procedure for authenticating a user terminal in a cellular access network, wherein a core network of the cellular access network comprises a Home Subscriber Server ; determining in the Home Subscriber Server upon receiving an indication in a request that the user terminal requires said keying material for use outside the cellular access network; responsive to said determining, notifying a Bootstrapping Server Function from the Home Subscriber Server that the user terminal requires said keying material for use outside the cellular access network; and generating modified session keys for use outside the cellular access network in the Home Subscriber Server , wherein said modified session keys are also generated in the user terminal , both the Home Subscriber Server and the user terminal using a serving network identity comprised in said request when generating the modified session keys, and wherein said modified session keys are generated further using said keying material.
A shrink shoe device, comprising: a web of material die cut into a general outline of a shoe upper; a shoe sole; a plurality of laces; and a shoe tongue; wherein the web of material is a multilayer, three dimensional weave fabric material , wherein the multi-layer, three dimensional weave fabric material comprises a face layer woven to a back layer via a plurality of floating threads ; wherein the web of material is wrapped around a shoe form and heat is applied to shrink the fabric around the shoe form to form a flexible, form fitting, unitary shoe upper; and wherein the shoe upper is then secured to the shoe sole, and the plurality of laces and the shoe tongue are secured to the shoe upper. a web of material die cut into a general outline of a shoe upper; a shoe sole; a plurality of laces; and a shoe tongue; wherein the web of material is a multilayer, three dimensional weave fabric material , wherein the multi-layer, three dimensional weave fabric material comprises a face layer woven to a back layer via a plurality of floating threads ; wherein the web of material is wrapped around a shoe form and heat is applied to shrink the fabric around the shoe form to form a flexible, form fitting, unitary shoe upper; and wherein the shoe upper is then secured to the shoe sole, and the plurality of laces and the shoe tongue are secured to the shoe upper. wherein the web of material is a multilayer, three dimensional weave fabric material , wherein the multi-layer, three dimensional weave fabric material comprises a face layer woven to a back layer via a plurality of floating threads ; wherein the web of material is wrapped around a shoe form and heat is applied to shrink the fabric around the shoe form to form a flexible, form fitting, unitary shoe upper; and wherein the shoe upper is then secured to the shoe sole, and the plurality of laces and the shoe tongue are secured to the shoe upper.