mhurhangee/patent-ind-claim-en huggingface dataset:
A floor installation unit for electrical connections, comprising a base section and a top section , the base section including at least one bayonet recess , the top section including at least one bayonet hook , the bayonet recess and the bayonet hook being able to be brought into engagement by placing the top section on the base section and then by lateral displacement or rotatiion of the base section and/or of the top section relative to each other, characterized by that the base section includes at least one spring member springing in the direction of engagement of the top section and comprising a locking recess , and the top section includes at least one locking nose corresponding to the locking recess , that the locking nose is locked in the locking recess , when the bayonet recesses and the bayonet hooks have been brought into engagement, that the arrangements of the bayonet recesses and of the bayonet hooks at the base section and the top section may be interchanged, and/or the arrangements of the spring member and of the locking nose at the base section and the top section may be interchanged. and/or of the top section relative to each other, characterized by that the base section includes at least one spring member springing in the direction of engagement of the top section and comprising a locking recess , and the top section includes at least one locking nose corresponding to the locking recess , that the locking nose is locked in the locking recess , when the bayonet recesses and the bayonet hooks have been brought into engagement, that the arrangements of the bayonet recesses and of the bayonet hooks at the base section and the top section may be interchanged, and/or the arrangements of the spring member and of the locking nose at the base section and the top section may be interchanged.
Hot formed product made from a hot formable strip, sheet or blank which is formable at a temperature of 600° C or above, the strip, sheet or blank comprising a substrate of hot formable steel having a composition in weight percent: C between 0.04 and 0.5 % Mn between 0.5 and 3.5 % Si less than 2.0 % Cr less than 1.0 % Ti less than 0.2 % Al less than 2.0 % Mo less than 0.5 % P less than 0.1 % N less than 0.015 % S less than 0.05 % B less than 0.015 % the remainder being Fe and unavoidable impurities. the substrate being coated with a corrosion protective coating being a zinc or zinc alloy layer, characterised in that the coated steel substrate before the hot forming is covered by a metal-phosphate layer containing the element zinc and calcium and optionally at least one element of manganese and nickel. C between 0.04 and 0.5 % Mn between 0.5 and 3.5 % Si less than 2.0 % Cr less than 1.0 % Ti less than 0.2 % Al less than 2.0 % Mo less than 0.5 % P less than 0.1 % N less than 0.015 % S less than 0.05 % B less than 0.015 % the remainder being Fe and unavoidable impurities. the substrate being coated with a corrosion protective coating being a zinc or zinc alloy layer, characterised in that the coated steel substrate before the hot forming is covered by a metal-phosphate layer containing the element zinc and calcium and optionally at least one element of manganese and nickel.
Motor vehicle, comprising at least one lifting device integrated into the hatchback , comprising an electric motor pull rope system consisting of at least one load cable ; at least one electric motor driven take up roller for reeling the load cable up and off; and a cable guide , by means of which at least two cable harnesses that extend in parallel can be led out of the hatchback in the direction of the floor, wherein the cable harnesses extending in parallel as load reception means are connected at the end side by means of a carrier rod , characterized in that at least one installation frame is provided for the lifting device in the hatchback , at which the at least one take up roller , including an electric motor drive , and optionally the cable guide are supported, and at least one, preferably two, positioning elements are provided that are supported on the installation frame at the end side and whose other ends are supported at the vehicle frame of the motor vehicle such that a direct force transmission from the installation frame into the vehicle body takes place. at least one electric motor driven take up roller for reeling the load cable up and off; and a cable guide , by means of which at least two cable harnesses that extend in parallel can be led out of the hatchback in the direction of the floor, wherein the cable harnesses extending in parallel as load reception means are connected at the end side by means of a carrier rod , characterized in that at least one installation frame is provided for the lifting device in the hatchback , at which the at least one take up roller , including an electric motor drive , and optionally the cable guide are supported, and at least one, preferably two, positioning elements are provided that are supported on the installation frame at the end side and whose other ends are supported at the vehicle frame of the motor vehicle such that a direct force transmission from the installation frame into the vehicle body takes place.
A camera module comprising: a stator ; a mover disposed in the stator and including at least one lens ; an actuator configured for moving the mover to a forward direction or to a backward direction; an actuator driving unit configured for controlling the actuator to move the mover to the forward direction or to the backward direction; and an elastic member elastically supporting the mover , characterized in that the actuator is configured to move the mover to the forward direction for driving a first search section where a negative value bit is allocated to the actuator and to the backward direction for driving a second search section where a positive value bit is allocated, wherein between the negative and positive value bits a zero bit corresponding to a current value of 0mA is allocated, a separate direction bit including a forward direction bit to drive the first search section and a reverse direction bit to drive the second search section is allocated in the actuator driving unit such that the mover is driven to the forward direction and the backward direction using the direction bit, wherein the first search section or the second search section is determined through the direction bit, and wherein a posture detection unit outputting a posture data by detecting a posture of the mover is provided, along with a controller configured for receiving the posture data outputted by the posture detection unit and outputting a control signal to the actuator driving unit . a stator ; a mover disposed in the stator and including at least one lens ; an actuator configured for moving the mover to a forward direction or to a backward direction; an actuator driving unit configured for controlling the actuator to move the mover to the forward direction or to the backward direction; and an elastic member elastically supporting the mover , characterized in that the actuator is configured to move the mover to the forward direction for driving a first search section where a negative value bit is allocated to the actuator and to the backward direction for driving a second search section where a positive value bit is allocated, wherein between the negative and positive value bits a zero bit corresponding to a current value of 0mA is allocated, a separate direction bit including a forward direction bit to drive the first search section and a reverse direction bit to drive the second search section is allocated in the actuator driving unit such that the mover is driven to the forward direction and the backward direction using the direction bit, wherein the first search section or the second search section is determined through the direction bit, and wherein
A method of using a flow meter device comprising: a flow measuring section for measuring a flow (Q) of a fluid in a fluid passage through which the fluid is supplied to a fluid instrument (A, B, C) in use; characterized by a measurement data processing section which calculates a slope (θ1, θ2) of a change in a flow difference per unit time (ΔQ/Δt) which change occurs with time, at a time point (t1, t2) when a sign of the flow difference per unit time ΔQ/Δt) is inverted, based on the flow (Q) of the fluid measured by the flow measuring section , and determines whether or not the fluid instrument (A, B, C) in use is a particular fluid instrument based on whether or not the slope (θ1, θ2) falls within a predetermined range, wherein the particular fluid instrument in use comprises a heating power adjustment knob and wherein the sign of the flow difference per unit time (ΔQ/Δt) is inverted when a manipulation of the particular fluid instrument in use is changed between a firing manipulation and an extinction manipulation by means of the heating power adjustment knob . a flow measuring section for measuring a flow (Q) of a fluid in a fluid passage through which the fluid is supplied to a fluid instrument (A, B, C) in use; characterized by a measurement data processing section which calculates a slope (θ1, θ2) of a change in a flow difference per unit time (ΔQ/Δt) which change occurs with time, at a time point (t1, t2) when a sign of the flow difference per unit time ΔQ/Δt) is inverted, based on the flow (Q) of the fluid measured by the flow measuring section , and determines whether or not the fluid instrument (A, B, C) in use is a particular fluid instrument based on whether or not the slope (θ1, θ2) falls within a predetermined range, wherein the particular fluid instrument in use comprises a heating power adjustment knob and wherein the sign of the flow difference per unit time (ΔQ/Δt) is inverted when a manipulation of the particular fluid instrument in use is changed between a firing manipulation and an extinction manipulation by means of the heating power adjustment knob .
A heated line forming system comprising: a heating coil system configured to produce a heated line on a surface of a metal plate during a thermal forming process; and an air knife cooling system configured to maintain a dry area for the heated line during the thermal forming process, and to direct coolant around the heated line via a spray mechanism such that the coolant is blocked from flowing onto the heated line on the surface of the metal plate during the thermal forming process, characterized in that the heated line is produced by a plurality of induction heating coils of the heating coil system arranged along the heated line and heated simultaneously, and that the heated line forming system further comprises a layer of segmented components disposed between a liquid-filled bladder supporting the metal plate and the metal plate during the thermal forming process, wherein the layer of segmented components is configured to reduce heat transferred to the liquid-filled bladder from the metal plate during the thermal forming process. a heating coil system configured to produce a heated line on a surface of a metal plate during a thermal forming process; and an air knife cooling system configured to maintain a dry area for the heated line during the thermal forming process, and to direct coolant around the heated line via a spray mechanism such that the coolant is blocked from flowing onto the heated line on the surface of the metal plate during the thermal forming process, characterized in that the heated line is produced by a plurality of induction heating coils of the heating coil system arranged along the heated line and heated simultaneously, and that the heated line forming system further comprises a layer of segmented components disposed between a liquid-filled bladder supporting the metal plate and the metal plate during the thermal forming process, wherein the layer of segmented components is configured to reduce heat transferred to the liquid-filled bladder from the metal plate during the thermal forming process.
A method for wireless signal transmission, the method comprising: storing , in a base station, a subframe partition configuration including an allocation of a first downlink, DL, subframe to be one of a semi-static subframe or dynamic subframe, wherein the first DL subframe is time division orthogonal to a second DL subframe allocated to a second base station, the second DL subframe being allocated by the subframe partition configuration to be one of a semi-static subframe or dynamic subframe; and transmitting , from the base station, a first signal consistent with the first DL subframe allocation. storing , in a base station, a subframe partition configuration including an allocation of a first downlink, DL, subframe to be one of a semi-static subframe or dynamic subframe, wherein the first DL subframe is time division orthogonal to a second DL subframe allocated to a second base station, the second DL subframe being allocated by the subframe partition configuration to be one of a semi-static subframe or dynamic subframe; and transmitting , from the base station, a first signal consistent with the first DL subframe allocation.
A recombinant nucleic acid molecule comprising a modified immunoglobulin (Ig) variable (V) segment that encodes an anchor-modified Ig polypeptide, wherein the modified Ig V segment comprises a nucleic acid sequence encoding the anchor between a nucleic acid sequence encoding an Ig signal peptide and a nucleic acid sequence encoding the framework region (FR) 1, complementarity determining region (CDR)1, FR2, CDR2, FR3, and CDR3 of a germline Ig V segment, or a variant thereof that is selected from the group consisting of a polymorphic variant thereof, a somatically hypermutated variant thereof, a recombined variant thereof, and a degenerate variant thereof, wherein the anchor-modified Ig polypeptide comprises in operable linkage: (i) the Ig signal peptide, (ii) the anchor, and (iii) the FR1, CDR1, FR2, CDR2, FR3, and CDR3 of the germline Ig V segment, or the variant thereof, wherein the anchor comprises a receptor binding portion of a non-immunoglobulin polypeptide of interest that binds a cognate receptor, and optionally wherein the nucleic acid molecule lacks any other V segments. wherein the modified Ig V segment comprises a nucleic acid sequence encoding the anchor between a nucleic acid sequence encoding an Ig signal peptide and a nucleic acid sequence encoding the framework region (FR) 1, complementarity determining region (CDR)1, FR2, CDR2, FR3, and CDR3 of a germline Ig V segment, or a variant thereof that is selected from the group consisting of a polymorphic variant thereof, a somatically hypermutated variant thereof, a recombined variant thereof, and a degenerate variant thereof, wherein the anchor-modified Ig polypeptide comprises in operable linkage: (i) the Ig signal peptide, (ii) the anchor, and (iii) the FR1, CDR1, FR2, CDR2, FR3, and CDR3 of the germline Ig V segment, or the variant thereof, (i) the Ig signal peptide, (ii) the anchor, and (iii) the FR1, CDR1, FR2, CDR2, FR3, and CDR3 of the germline Ig V segment, or the variant thereof, wherein the anchor comprises a receptor binding portion of a non-immunoglobulin polypeptide of interest that binds a cognate receptor, and optionally wherein the nucleic acid molecule lacks any other V segments.
An insertable filter unit for a smoking article filter , the insertable filter unit comprising a retaining means to retain the insertable filter unit in a recess in the smoking article filter , the insertable filter unit having a thin insertable part arranged to be inserted into the recess and a thicker non-insertable part , and wherein the insertable filter unit comprises a smoke modifying substance comprising a flavourant comprising tobacco, and filtration material.
. A lead-free solder alloy comprising: from 8 to 15 wt.% antimony, from 0.05 to 2 wt.% bismuth, from 2.5 to 5.0 wt.% silver, from 0.5 to 1.5 wt.% copper, one or more of from 0.001 to 1 wt.% nickel, from 0.001 to 1 wt.% cobalt, from 0.001 to 1 wt.% titanium, from 0.001 to 1 wt.% manganese, from 0.001 to 1 wt.% germanium, from 0.001 to 10 wt.% aluminum, from 0.001 to 10 wt.% silicon, optionally one or more of up to 5 wt.% indium, up to 1 wt.% chromium, up to 1 wt.% zinc, up to 1 wt.% arsenic, up to 1 wt.% iron, up to 1 wt.% phosphorus, up to 1 wt.% gold, up to 1 wt.% gallium, up to 1 wt.% tellurium, up to 1 wt.% selenium, up to 1 wt.% calcium, up to 1 wt.% vanadium, up to 1 wt.% molybdenum, up to 1 wt.% platinum, up to 1 wt.% rare earth elements, the balance tin and any unavoidable impurities, the unavoidable impurities being in total 1 wt% or less of the composition. from 8 to 15 wt.% antimony, from 0.05 to 2 wt.% bismuth, from 2.5 to 5.0 wt.% silver, from 0.5 to 1.5 wt.% copper, one or more of from 0.001 to 1 wt.% nickel, from 0.001 to 1 wt.% cobalt, from 0.001 to 1 wt.% titanium, from 0.001 to 1 wt.% manganese, from 0.001 to 1 wt.% germanium, from 0.001 to 10 wt.% aluminum, from 0.001 to 10 wt.% silicon, from 0.001 to 1 wt.% nickel, from 0.001 to 1 wt.% cobalt, from 0.001 to 1 wt.% titanium, from 0.001 to 1 wt.% manganese, from 0.001 to 1 wt.% germanium, from 0.001 to 10 wt.% aluminum, from 0.001 to 10 wt.% silicon, optionally one or more of up to 5 wt.% indium, up to 1 wt.% chromium, up to 1 wt.% zinc, up to 1 wt.% arsenic, up to 1 wt.% iron, up to 1 wt.% phosphorus, up to 1 wt.% gold, up to 1 wt.% gallium, up to 1 wt.% tellurium, up to 1 wt.% selenium, up to 1 wt.% calcium, up to 1 wt.% vanadium, up to 1 wt.% molybdenum, up to 1 wt.% platinum, up to 1 wt.% rare earth elements, up to 5 wt.% indium, up to 1 wt.% chromium, up to 1 wt.% zinc, up to 1 wt.% arsenic, up to 1 wt.% iron, up to 1 wt.% phosphorus, up to 1 wt.% gold, up to 1 wt.% gallium, up to 1 wt.% tellurium, up to 1 wt.% selenium, up to 1 wt.% calcium, up to 1 wt.% vanadium, up to 1 wt.% molybdenum, up to 1 wt.% platinum, up to 1 wt.% rare earth elements, the balance tin and any unavoidable impurities, the unavoidable impurities being in total 1 wt% or less of the composition.
A liquid fabric softener composition comprising, based on the weight of the liquid fabric softener composition: a) from 2% to 25% of fabric softening active; b) from 0.01% to 1% of chitosan; c) from 0.002% to 2% of salt selected from the group consisting of alkaline metals salts, alkaline earth metal salts of the mineral acids and combinations thereof. a) from 2% to 25% of fabric softening active; b) from 0.01% to 1% of chitosan; c) from 0.002% to 2% of salt selected from the group consisting of alkaline metals salts, alkaline earth metal salts of the mineral acids and combinations thereof.
Protection method for a touch panel device , the protection method comprising: monitoring (S1) for every position on the touch panel device a number of user input actions and surface area sizes of the user input actions , and moving (S2) input elements that are displayed on the touch panel device from their original position to an alternative position based on the monitored numbers and surface area sizes . monitoring (S1) for every position on the touch panel device a number of user input actions and surface area sizes of the user input actions , and moving (S2) input elements that are displayed on the touch panel device from their original position to an alternative position based on the monitored numbers and surface area sizes .
A signal collection unit of a battery module, comprising: a circuit board having a circuit thereon; a signal collection terminal comprising a protection cover electrically connected with the circuit and an electric connection sheet connected with the protection cover , the protection cover being disposed on a surface of the circuit board and a chamber being defined by the protection cover and the circuit board , the electric connection sheet being extended beyond an edge of the circuit board ; a temperature-sensing element disposed in the chamber and on the surface of the circuit board , and insulated from the protection cover ; and a heat conductive-electric isolative material filled within the chamber through an inlet being formed in the protection cover . a circuit board having a circuit thereon; a signal collection terminal comprising a protection cover electrically connected with the circuit and an electric connection sheet connected with the protection cover , the protection cover being disposed on a surface of the circuit board and a chamber being defined by the protection cover and the circuit board , the electric connection sheet being extended beyond an edge of the circuit board ; a temperature-sensing element disposed in the chamber and on the surface of the circuit board , and insulated from the protection cover ; and a heat conductive-electric isolative material filled within the chamber through an inlet being formed in the protection cover .
A wearable motion detection device configured for detecting body-to-ground proximity, the device comprising: - a capacitance detection unit arranged to detect body-to-ground capacitance, the capacitance detection unit comprising: - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode , - a shield electrode that is arranged to shield the second electrode from the first electrode , - a control unit arranged to detect, under consideration of a body-to-ground capacitance signal provided by the capacitance detection unit , positional changes of the user. - a capacitance detection unit arranged to detect body-to-ground capacitance, the capacitance detection unit comprising: - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode , - a shield electrode that is arranged to shield the second electrode from the first electrode , - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode , - a shield electrode that is arranged to shield the second electrode from the first electrode , - a control unit arranged to detect, under consideration of a body-to-ground capacitance signal provided by the capacitance detection unit , positional changes of the user.
A fluid handling assembly comprising: a cavity in which water may become trapped due to use of the assembly; and a membrane disposed in the cavity , wherein the membrane divides the cavity into a first sub-cavity on a first side of the membrane that is configured to collect any water trapped in the cavity and a second sub-cavity on a second, opposite side of the membrane ; wherein the membrane is configured to change shape such that the first sub-cavity increases in volume and the second sub-cavity decreases in volume in response to being subjected to water freezing conditions; characterised by an elastic adhesive provided in the second sub-cavity for securing the membrane in place in the cavity , wherein the elastic adhesive fills the second sub-cavity . a cavity in which water may become trapped due to use of the assembly; and a membrane disposed in the cavity , wherein the membrane divides the cavity into a first sub-cavity on a first side of the membrane that is configured to collect any water trapped in the cavity and a second sub-cavity on a second, opposite side of the membrane ; wherein the membrane is configured to change shape such that the first sub-cavity increases in volume and the second sub-cavity decreases in volume in response to being subjected to water freezing conditions; characterised by an elastic adhesive provided in the second sub-cavity for securing the membrane in place in the cavity , wherein the elastic adhesive fills the second sub-cavity .