mhurhangee/patent-ind-claim-en huggingface dataset:
A power battery cap structure , comprising a first terminal , a second terminal and a cap assembly, the second terminal being electrically insulated from the cap assembly, characterized in that , the power battery cap structure further comprises a resistance which electrically connects the first terminal with the cap assembly in a normal state, the cap assembly comprises a cap sheet , a first short circuit part and a second short circuit part ; the first short circuit part and the second short circuit part are attached to the cap sheet , when an internal pressure of the power battery exceeds a predetermined threshold, the first short circuit part and the second short circuit part act and then form a first path and a second path between the first terminal and the second terminal ; the first path passes through the first terminal , the second short circuit part , the resistance and the second terminal ; and the second path passes through the first terminal , first short circuit part , the second short circuit part and the second terminal .
A data receiving method performed by a terminal device, comprising: receiving (S401) first control information in a first time unit, wherein the first control information indicates a first time domain resource used to send a first information block; receiving (S402) the first information block on at least a part of the first time domain resource based on the first control information; receiving (S403) second control information in a second time unit, wherein the second control information indicates a second time domain resource used to send the first information block; and receiving (S404) the first information block on the second time domain resource based on the second control information, wherein the first time unit is different from the second time unit, and the first time domain resource and the second time domain resource have an overlapping time domain resource; wherein the first information block is transmitted a total of N times, characterized in that the first control information indicates the terminal device to receive the first information block in the first time unit at an S th time; and the second control information indicates the terminal device to receive the first information block in the second time unit at an L th time, 1≤S≤N, 1≤L≤N, and S, L, and N are integers; wherein a total of M Physical Downlink Control Channels, PDCCHs, is sent to the terminal device, 1<M≤N and an i th PDCCH of the M PDCCHs schedules a transmission of the first information block in an i th time unit and in subsequent (i+1) st to N th time units. receiving (S401) first control information in a first time unit, wherein the first control information indicates a first time domain resource used to send a first information block; receiving (S402) the first information block on at least a part of the first time domain resource based on the first control information; receiving (S403) second control information in a second time unit, wherein the second control information indicates a second time domain resource used to send the first information block; and receiving (S404) the first information block on the second time domain resource based on the second control information, wherein the first time unit is different from the second time unit, and the first time domain resource and the second time domain resource have an overlapping time domain resource; wherein the first information block is transmitted a total of N times, characterized in that the first control information indicates the terminal device to receive the first information block in the first time unit at an S th time; and the second control information indicates the terminal device to receive the first information block in the second time unit at an L th time, 1≤S≤N, 1≤L≤N, and S, L, and N are integers; wherein a total of M Physical Downlink Control Channels, PDCCHs, is sent to the terminal device, 1<M≤N and an i th PDCCH of the M PDCCHs schedules a transmission of the first information block in an i th time unit and in subsequent (i+1) st to N th time units.
Modular system for moving storage elements comprising a plurality of adjacent modules and at least one rack capable of being moved in the modular structure from one module to an adjacent module , a module comprising a rectangular parallelepiped frame comprising bars assembled together, at least one of the modules and racks comprising at least one actuator and the other of the modules and racks comprising complementary indentations , one of the actuators and indentations being fixed to the bars of the frame , the other of the actuators and indentations being fixed to the rack , the actuators and indentations being configured to cooperate so as to translate a rack located at least partially in one module towards an adjacent module , the system further comprising a central controller , configured to control the actuators and manage the movement of the rack in the system , characterized in that an actuator comprises a drive element configured to engage with the indentations , and a clutch device configured to retract the drive element into a disengaged position in which the drive element is spaced from the indentations so that the drive element does not interact with the indentations .
Steering unit for a vehicle, comprising two handles and at least one side mirror having a mirror housing which is connected to a supporting arm , wherein the supporting arm is fixed in a rotatably movable manner to one of the two handles in such a way that the side mirror can be pivoted and/or folded from a folded-in first position located below the horizontal longitudinal axis (HL) of the handle into a folded-out second position located above the horizontal longitudinal axis (HL) of the handle , wherein the supporting arm can be pivoted and/or folded about a first pivot axis (S1) which is formed substantially perpendicular to the horizontal longitudinal axis (HL) of the handle , wherein the supporting arm is attached in a rotatably movable manner to the handle by means of a hinge joint , wherein a hinge pin defines the first pivot axis (S1), characterized in in that the hinge joint comprises a latching mechanism with an unlocking element, in particular an unlocking knob , by the actuation of which the hinge pin can be moved in the axial direction against a pretensioning force, in particular against a spring force.
Intramedullary based and omni-positionable cutting guide instrumentation for femoral epiphysis resection for knee prosthesis placement comprising: an intramedullary placement guide configured for insertion into a medullary cavity of a femoral epiphysis in use, the placement guide having an anterior/posterior adjustment mechanism; a posterior referencing sizing jig for fastening to the anterior/posterior adjustment mechanism, the posterior rotational referencing sizing jig configured for referencing anterior and posterior surfaces of the femoral epiphysis so as to adjust the anterior/posterior offset of the anterior/posterior adjustment mechanism in use; characterised in that the cutting guide instrumentation further comprises a punch card for subsequent fastening to the anterior/posterior adjustment mechanism, the punch card comprising a plurality of position referencing apertures for receipt of at least one locking pin of a cutting block guide therein for the purposes of allowing the anterior/posterior positioning of the cutting block guide at a first position for the purposes of making a first resection and at a second position for the purposes of making a second resection. an intramedullary placement guide configured for insertion into a medullary cavity of a femoral epiphysis in use, the placement guide having an anterior/posterior adjustment mechanism; a posterior referencing sizing jig for fastening to the anterior/posterior adjustment mechanism, the posterior rotational referencing sizing jig configured for referencing anterior and posterior surfaces of the femoral epiphysis so as to adjust the anterior/posterior offset of the anterior/posterior adjustment mechanism in use; characterised in that the cutting guide instrumentation further comprises a punch card for subsequent fastening to the anterior/posterior adjustment mechanism, the punch card comprising a plurality of position referencing apertures for receipt of at least one locking pin of a cutting block guide therein for the purposes of allowing the anterior/posterior positioning of the cutting block guide at a first position for the purposes of making a first resection and at a second position for the purposes of making a second resection.
A high-manganese hot-dip aluminum-coated steel sheet comprising: a base steel sheet consisting of, by weight, 5 to 35% of Mn, 0.3 to 6% of Al, 0.1 to 1.2% of Si, optionally further including one or more selected from the group consisting of, by weight, 0.3 to 0.9% of C, 0.01 to 0.5% of Ti, 0.05 to 0.5% of V, 0.0005 to 0.0050% of B, 0.01 to 0.5% of Cr, 0.01 to 0.5% of Mo, 0.01 to 0.05% of Nb, and 0.01 to 0.1% of Sn, a balance of Fe and inevitable impurities; a hot-dip aluminum-coated layer formed on a surface of the base steel sheet and consisting of, by weight, 3 to 12% of Si, optionally further including, by weight, 0.1 to 10% of Mg, optionally further including, by weight, 0.001 to 5 wt% of Ca, 0.005 to 2 wt % of Sr, 0.01 to 2 wt% of Mn, 0.01 to 2 wt% of Cr, 0.01 to 2 wt% of Mo, and 0.1 to 10 wt% of Sn, a balance of Al, and inevitable impurities; and an alloy layer including an Fe-Al-Si-Mn-based alloy phase and having a thickness of 0.1 to 10 μm and included on an interface between the base steel sheet and the hot-dip aluminum-coated layer, wherein the alloy layer consists of, by weight, 40 to 70% of Al, 2 to 13% of Si, 3 to 9% of Mn, optionally further including, by weight, 0.1% to 1% of Mg, a balance of Fe and inevitable impurities. a base steel sheet consisting of, by weight, 5 to 35% of Mn, 0.3 to 6% of Al, 0.1 to 1.2% of Si, optionally further including one or more selected from the group consisting of, by weight, 0.3 to 0.9% of C, 0.01 to 0.5% of Ti, 0.05 to 0.5% of V, 0.0005 to 0.0050% of B, 0.01 to 0.5% of Cr, 0.01 to 0.5% of Mo, 0.01 to 0.05% of Nb, and 0.01 to 0.1% of Sn, a balance of Fe and inevitable impurities; a hot-dip aluminum-coated layer formed on a surface of the base steel sheet and consisting of, by weight, 3 to 12% of Si, optionally further including, by weight, 0.1 to 10% of Mg, optionally further including, by weight, 0.001 to 5 wt% of Ca, 0.005 to 2 wt % of Sr, 0.01 to 2 wt% of Mn, 0.01 to 2 wt% of Cr, 0.01 to 2 wt% of Mo, and 0.1 to 10 wt% of Sn, a balance of Al, and inevitable impurities; and an alloy layer including an Fe-Al-Si-Mn-based alloy phase and having a thickness of 0.1 to 10 μm and included on an interface between the base steel sheet and the hot-dip aluminum-coated layer, wherein the alloy layer consists of, by weight, 40 to 70% of Al, 2 to 13% of Si, 3 to 9% of Mn, optionally further including, by weight, 0.1% to 1% of Mg, a balance of Fe and inevitable impurities.
A light scanning device comprising: a mirror device that includes a movable mirror which swings about at least one axis; and a package that has at least two or more light transmission surfaces not constituting the same plane and accommodates the mirror device , wherein the package is configured with a substrate having a flat plate shape and a lid member having a box shape, wherein an imaging apparatus and a signal output terminal for extracting an imaging signal output from the imaging apparatus to the outside are provided inside the package , wherein out of the two or more light transmission surfaces of the package , one light transmission surface is a light receiving surface for receiving an incidence ray on the movable mirror from an outside, and the other light transmission surface is a light extraction surface for extracting light reflected by the movable mirror to the outside, wherein the light extraction surface guides a part of the light reflected by the movable mirror to the imaging apparatus by reflecting the part of the light, and wherein the light receiving surface and the light extraction surface are configured with two light transmission surfaces that are not parallel. a mirror device that includes a movable mirror which swings about at least one axis; and a package that has at least two or more light transmission surfaces not constituting the same plane and accommodates the mirror device , wherein the package is configured with a substrate having a flat plate shape and a lid member having a box shape, wherein an imaging apparatus and a signal output terminal for extracting an imaging signal output from the imaging apparatus to the outside are provided inside the package , wherein out of the two or more light transmission surfaces of the package , one light transmission surface is a light receiving surface for receiving an incidence ray on the movable mirror from an outside, and the other light transmission surface is a light extraction surface for extracting light reflected by the movable mirror to the outside, wherein the light extraction surface guides a part of the light reflected by the movable mirror to the imaging apparatus by reflecting the part of the light, and wherein the light receiving surface and the light extraction surface are configured with two light transmission surfaces that are not parallel.
A method of making a vacuum insulating glass, VIG, unit, the method comprising: forming a first layer stack around peripheral edges of a first major surface of a first substrate; forming a second layer stack around peripheral edges of a first major surface of a second substrate; the first and second layer stacks being formed via activated energetic spray deposition; placing a plurality of spacers on the first major surface of the first substrate; characterised in that the first layer stack and the second layer stack include, in order moving away from the first major surfaces of the substrates on which they are formed, a layer comprising nickel and a layer comprising silver; the method further comprising: placing a solid solder alloy pre-form over and contacting the first layer stack; bringing together the first and second substrates such that the first major surfaces thereof face one another and form a subassembly; forming an edge seal by reactively reflowing the solid solder alloy pre-form to cause material from the first and second layer stacks to diffuse into the solder alloy material, and vice versa; and following the formation of the edge seal, which then includes inter-metallic compounds, evacuating a cavity formed between the first and second substrates in making the VIG unit. forming a first layer stack around peripheral edges of a first major surface of a first substrate; forming a second layer stack around peripheral edges of a first major surface of a second substrate; the first and second layer stacks being formed via activated energetic spray deposition; placing a plurality of spacers on the first major surface of the first substrate; characterised in that the first layer stack and the second layer stack include, in order moving away from the first major surfaces of the substrates on which they are formed, a layer comprising nickel and a layer comprising silver; the method further comprising: placing a solid solder alloy pre-form over and contacting the first layer stack; bringing together the first and second substrates such that the first major surfaces thereof face one another and form a subassembly; forming an edge seal by reactively reflowing the solid solder alloy pre-form to cause material from the first and second layer stacks to diffuse into the solder alloy material, and vice versa; and following the formation of the edge seal, which then includes inter-metallic compounds, evacuating a cavity formed between the first and second substrates in making the VIG unit. placing a solid solder alloy pre-form over and contacting the first layer stack; bringing together the first and second substrates such that the first major surfaces thereof face one another and form a subassembly; forming an edge seal by reactively reflowing the solid solder alloy pre-form to cause material from the first and second layer stacks to diffuse into the solder alloy material, and vice versa; and following the formation of the edge seal, which then includes inter-metallic compounds, evacuating a cavity formed between the first and second substrates in making the VIG unit.
Coupling head for a central buffer coupling for vehicles that can be coupled, having a coupling head housing and having an end plate that terminates the coupling head housing at the end and is detachably connected to the coupling head housing , wherein the coupling head housing has a first connection region to be coupled to the end plate , and a second connection region for producing the connection to a coupling rod, characterized in that the coupling head housing is designed in one piece as a forged component, wherein the first connection region on the coupling head housing is formed by at least two contact surfaces arranged separately from each other and predefining locally limited force introduction regions to be supported at least indirectly on partial surfaces of the end plate , and the coupling head housing is connected to the end plate in the first connection region via force-fitting connections.
A probe for fill limiting device for liquid petroleum fuel transport tank, comprising a level detector mounted on a support which is fixed in a compartment (C) of the tank so that the detector is placed in the compartment (C) at a maximum permissible filling height, the level detector including a measuring sensor including at least two sets of several electrodes (5, 6, 4, 7, 8; 12, 13, 14), the sets of several electrodes delimiting two areas (Zl, Z2), the probe comprising means for testing the proper operation of the entire acquisition chain of the measurement of dielectric permittivity of the fluid present at the electrodes, characterised in that the electrodes are made in the form of independent sets of metal plates separated by a common separating electrode formed by one of the plates and at least two means (9a, 9b; 16) for measuring the dielectric permittivity of a fluid present between the electrodes are incorporated in the probe, the probe comprising two redundant level measuring assemblies each formed by a set of metal plates each associated with a measuring means.
A method for erecting a tower, in particular a tower for a wind power installation, comprising: - providing a tower foot having a floor or having a base platform, - erecting and operating a supply scaffold by • arranging a scaffold module designed as a floor module so as to stand on the floor of the tower or the base platform of the tower , • arranging a scaffold module designed as a core module on the floor module, • setting the supply scaffold in operation, • wherein the supply scaffold has a ladder and preferably additionally a climbing aid, wherein the ladder is arranged and configured in such a way that persons on an outside of the supply scaffold can climb up or down the ladder , and the supply scaffold has an elevator module arranged in an interior of the supply scaffold , - erecting a tower on the tower foot, - operating the supply scaffold during construction of the tower and independently of a height of the tower for assembly of the tower , - fastening the supply scaffold to an inner wall of the tower by means of one or more first fastening elements , - fastening supply elements to the supply frame by means of one or more second fastening elements arranged on an outer side of the supply frame . - providing a tower foot having a floor or having a base platform, - erecting and operating a supply scaffold by • arranging a scaffold module designed as a floor module so as to stand on the floor of the tower or the base platform of the tower , • arranging a scaffold module designed as a core module on the floor module, • setting the supply scaffold in operation, • wherein the supply scaffold has a ladder and preferably additionally a climbing aid, wherein the ladder is arranged and configured in such a way that persons on an outside of the supply scaffold can climb up or down the ladder , and the supply scaffold has an elevator module arranged in an interior of the supply scaffold , • arranging a scaffold module designed as a floor module so as to stand on the floor of the tower or the base platform of the tower , • arranging a scaffold module designed as a core module on the floor module, • setting the supply scaffold in operation, • wherein the supply scaffold has a ladder and preferably additionally a climbing aid, wherein the ladder is arranged and configured in such a way that persons on an outside of the supply scaffold can climb up or down the ladder , and the supply scaffold has an elevator module arranged in an interior of the supply scaffold , - erecting a tower on the tower foot, - operating the supply scaffold during construction of the tower and independently of a height of the tower for assembly of the tower , - fastening the supply scaffold to an inner wall of the tower by means of one or more first fastening elements , - fastening supply elements to the supply frame by means of one or more second fastening elements arranged on an outer side of the supply frame .
A method of measuring changes in hair movement characteristics, predictive of consumer response, the method comprising the steps of: i) providing an apparatus for measuring movement characteristics of hair ; ii) measuring the movement characteristics of hair using the apparatus ; iii) applying a treatment or assault to the hair ; iv) measuring the movement characteristics of the hair resulting from step iii); v) comparing the movement characteristics arising from step iv) with that of step ii); and vi) assessing the changes in movement occurring as a result of the application of the treatment or assault, wherein the apparatus comprises a rig including a bar upon which the hair is mountable, the rig including a motor to apply a forced oscillation in the horizontal axis to the bar, the bar is located in front of a lightbox ; a camera (with video capabilities) is mounted a fixed distance from the lightbox for capturing images of the hair during forced movement and also images of the decay of the movement after the forced oscillation has ceased to be applied. i) providing an apparatus for measuring movement characteristics of hair ; ii) measuring the movement characteristics of hair using the apparatus ; iii) applying a treatment or assault to the hair ; iv) measuring the movement characteristics of the hair resulting from step iii); v) comparing the movement characteristics arising from step iv) with that of step ii); and vi) assessing the changes in movement occurring as a result of the application of the treatment or assault,