mhurhangee/patent-ind-claim-en huggingface dataset:
Bathing lounger , comprising • a lounger body having a circumferential outer wall which, along with a base wall , defines a receiving space , the receiving space being divided into the following areas: • a, preferably rounded, head area ; • a neck area adjoining the head area and narrowing in relation to the head area ; • a torso area adjoining the neck area , widening towards the outer wall and sloping towards of the bottom wall ; • a buttock area adjoining the torso area and arching down towards the bottom wall ; • a thigh area adjoining the buttock area ; • a lower leg area adjoining the thigh area , and • a foot area adjoining the lower leg area , characterized in that , • the torso area is inclined downwards at an angle (a) of 10° to 17°, preferably 15°, with respect to the bottom wall towards the bottom wall ; • the thigh area rises linearly in relation to the bottom wall ; • the lower leg area slopes down linearly towards the bottom wall , and • the foot area arches down towards the bottom wall . • a lounger body having a circumferential outer wall which, along with a base wall , defines a receiving space , the receiving space being divided into the following areas: • a, preferably rounded, head area ; • a neck area adjoining the head area and narrowing in relation to the head area ; • a torso area adjoining the neck area , widening towards the outer wall and sloping towards of the bottom wall ; • a buttock area adjoining the torso area and arching down towards the bottom wall ; • a thigh area adjoining the buttock area ; • a lower leg area adjoining the thigh area , and • a foot area adjoining the lower leg area , • the torso area is inclined downwards at an angle (a) of 10° to 17°, preferably 15°, with respect to the bottom wall towards the bottom wall ; • the thigh area rises linearly in relation to the bottom wall ; • the lower leg area slopes down linearly towards the bottom wall , and • the foot area arches down towards the bottom wall .
A hybrid work vehicle comprising: an internal combustion engine (E) for supplying driving force to a running device and a work implement (W) via a transmission shaft ; a motor generator for assisting the internal combustion engine (E) by outputting power to the transmission shaft ; a battery (B) for receiving charging electricity from the motor generator and giving driving electricity to the motor generator ; a load information generation unit for generating load information indicating a rotational load received by the internal combustion engine (E) when in a constant-speed control mode for maintaining a constant number of revolutions of the internal combustion engine (E), based on an input parameter; and an assistance calculation unit for calculating an amount of assistance for the internal combustion engine (E) by the motor generator when in the constant-speed control mode, based on the load information, wherein the assistance calculation unit is configured to calculate the amount of assistance so as to supplement a flywheel characteristic that is appropriate for the internal combustion engine (E). an internal combustion engine (E) for supplying driving force to a running device and a work implement (W) via a transmission shaft ; a motor generator for assisting the internal combustion engine (E) by outputting power to the transmission shaft ; a battery (B) for receiving charging electricity from the motor generator and giving driving electricity to the motor generator ; a load information generation unit for generating load information indicating a rotational load received by the internal combustion engine (E) when in a constant-speed control mode for maintaining a constant number of revolutions of the internal combustion engine (E), based on an input parameter; and an assistance calculation unit for calculating an amount of assistance for the internal combustion engine (E) by the motor generator when in the constant-speed control mode, based on the load information, wherein the assistance calculation unit is configured to calculate the amount of assistance so as to supplement a flywheel characteristic that is appropriate for the internal combustion engine (E).
Method for transferring structures onto a host substrate , the method comprising the following successive steps: a) supplying a support layer comprising two main faces called, respectively, first face and second face , structures , each comprising a front face and a rear face , being assembled by their front face on the first face ; c) a step of transferring the structures onto a host face of a host substrate , the method being remarkable in that: the support layer comprises folding regions , between the structures , adapted to pass, in a reversible manner, from a folded state to an unfolded state under the action of an external excitation, the method further comprises, between steps a) and c), a step b) of executing the external action in such a way as to make the folding regions pass from one or the other of the folded or unfolded states to the other of the folded or unfolded states such that the spacing between the relative positions of the structures with respect to each other varies before the execution of step c), the support layer further comprises an intermediate layer adapted, under the action of the external excitation, to vary its stress state, and thereby generate the passage from one or the other of the folded and unfolded states to the other of these two states, the support layer comprises from its first face to its second face , a first layer , the intermediate layer , and a second layer , the first layer and the second layer , having, respectively, first trenches and second trenches at the level of which are inscribed folds at the level of the folding regions when the support layer is in the folded state. a) supplying a support layer comprising two main faces called, respectively, first face and second face , structures , each comprising a front face and a rear face , being assembled by their front face on the first face ; c) a step of transferring the structures onto a host face of a host substrate , the support layer comprises folding regions , between the structures , adapted to pass, in a reversible manner, from a folded state to an unfolded state under the action of an external excitation, the method further comprises, between steps a) and c), a step b) of executing the external action in such a way as to make the folding regions pass from one or the other of the folded or unfolded states to the other of the folded or unfolded states such that the spacing between the relative positions of the structures with respect to each other varies before the execution of step c), the support layer further comprises an intermediate layer adapted, under the action of the external excitation, to vary its stress state, and thereby generate the passage from one or the other of the folded and unfolded states to the other of these two states, the support layer comprises from its first face to its second face , a first layer , the intermediate layer , and a second layer , the first layer and the second layer , having, respectively, first trenches and second trenches at the level of which are inscribed folds at the level of the folding regions when the support layer is in the folded state.
An automatic polishing system comprising: a polishing robot holding a polishing tool ; and a polishing controller , the system being configured such that under control of the polishing robot by the polishing controller or control of the polishing robot and the polishing tool by the polishing controller , the polishing tool carries out a polishing action on a polishing subject face (A); characterised in that there is provided a color intensity measurement instrument (N) for measuring intensity (x) of a specified color (Cs) on the polishing subject face (A) including an outer layer portion (sr) and a lower layer portion (ur) present beneath the outer layer portion (sr), which lower layer portion has a material quality or property different from the outer layer portion (sr); the specified color (Cs) is a color of the lower layer portion (ur) or a color of the outer layer portion (sr); based on the intensity (x) of the specified color (Cs) measured by the color intensity measurement instrument (N), the polishing controller is configured to control either the polishing robot alone or both the polishing robot and the polishing tool , so that an amount of polishing work by the polishing tool on the polishing subject face (A) is adjusted according to the intensity (x) of the specified color (Cs) measured by the color intensity measurement instrument (N); the color intensity measurement instrument (N) includes a camera configured to photograph the polishing subject face (A) and a projector which is capable of irradiating the polishing subject face (A) with irradiation light beam; and the color intensity measurement instrument (N) is capable of obtaining a plurality of kinds of image data (G2) with different colors of the irradiation light beam by causing the camera to photograph the polishing subject face (A) while changing a color of the irradiation light beam onto the polishing subject face (A) and is configured to then measure the intensity (x) of the specified color (Cs) on the polishing subject face (A), based on the plurality of kinds of image data (G2).
An apparatus comprising: a washer for a fastener, the washer comprised of: a circular base plate ; a domed cap that projects from the base plate; a cavity formed between the circular base plate and the domed cap; and a fastener hole that extends through the circular base plate and the domed cap; characterized in that the domed cap is integrally formed with the base plate. a circular base plate ; a domed cap that projects from the base plate; a cavity formed between the circular base plate and the domed cap; and a fastener hole that extends through the circular base plate and the domed cap; characterized in that the domed cap is integrally formed with the base plate.
A calibration arrangement for calibration of an analysing or measuring instrument, e.g. a Vector Network Analyzer, comprising a number of calibrator connector elements (20A,20B;20A',20B';20A 1 ;20") allowing an analysing or measuring instrument to be connected thereto, characterized in that it comprises a plate element (10;10';10") comprising a plurality of calibration waveguide structures (11 1 , 11 2 , 11 3 , 11 4 , 11 5 ; 11 1 ',11 2 ',11 3 ',11 4 ',11 5 ',11 6 ') comprising a number of different calibration standards, that the plate element (10;10';10") on a number of sides thereof is provided with a conductive surface (12;12';12"), that each calibrator connector element (20A,20B;20A',20B',20") and/or the conductive surface of the plate element (10") comprises a surface with a periodic or quasi-periodic structure (27;27';27 1 ",27 2 ";27 1 ), that each calibrator connector element (20A,20B;20A',20B'; 20";20A 1 ) is connectable to the plate element (10;10';10") such that a waveguide interface is formed by a said conductive surface (12;12';12") and the surface of a calibrator connector element (20A,20B;20A',20B'; 20";20A 1 ) when it is positioned at a calibration waveguide structure (11 1 ,11 2 ,11 3 , 11 4 ,11 5 ; 11 1 ',11 2 ',11 3 ',11 4 ',11 5 ',11 6 '), the plate element (10;10';10") and a calibrator connector element (20A,20B;20A',20B';20";20A 1 ) then being so disposed with respect to one another that a gap or gaps (29;29';29") is/are formed there between, allowing the calibrator connector element (20A,20B;20A',20B'; 20";20A 1 ) and the plate element (10;10';10") to be movable with respect to one another, and in that the calibration arrangement (100;100') further preferably comprises or is adapted to communicate with a driving unit and a control function for controlling the movement of the plate element (10;10';10") and/or the calibrator connector element (20A,20B;20A',20B';20";20A 1 ) and connection of the calibrator connector element to different calibration waveguide structures (11 1 ,11 2 ,11 3 ,11 4 ,11 5 ;11 1 ',11 2 ',11 3 ',11 4 ',11 5 ',11 6 '), hence allowing interconnection of a waveguide of an analysing or measuring instrument connected to a calibrator connector element (20A,20B;20A',20B';20";20A 1 ) comprising a waveguide to the different calibration standards.
A surface hardening process for an aluminum alloy mould of a bottle blowing machine, comprising steps of: (a) polishing a surface of a cavity of the aluminum alloy mould , and putting the polished aluminum alloy mould into an oxidation tank containing an electrolyte to perform a hard anodic oxidation treatment, wherein an oxidation layer is formed on the surface of the cavity of the aluminum alloy mould after the oxidation treatment, wherein the hard anodic oxidation treatment utilizes an oxidation electric current superposed by an alternating current, a direct current and a pulse current, wherein a current density of the alternating current is 0.5-3.5 A/dm 2 and a current density of the direct current is 0.2-4.5 A/dm 2 , a frequency of the pulse current is 40-60 Hz, and a duty cycle of the pulse current is 20-60%, the electrolyte being a mixed solution including an inorganic acid and an organic acid; (b) coating a grease film on the parting line at an edge of the cavity of the aluminum alloy mould after the oxidation treatment; and (c) polishing the surface of the cavity of the aluminum alloy mould after the oxidation treatment. (a) polishing a surface of a cavity of the aluminum alloy mould , and putting the polished aluminum alloy mould into an oxidation tank containing an electrolyte to perform a hard anodic oxidation treatment, wherein an oxidation layer is formed on the surface of the cavity of the aluminum alloy mould after the oxidation treatment, wherein the hard anodic oxidation treatment utilizes an oxidation electric current superposed by an alternating current, a direct current and a pulse current, wherein a current density of the alternating current is 0.5-3.5 A/dm 2 and a current density of the direct current is 0.2-4.5 A/dm 2 , a frequency of the pulse current is 40-60 Hz, and a duty cycle of the pulse current is 20-60%, the electrolyte being a mixed solution including an inorganic acid and an organic acid; (b) coating a grease film on the parting line at an edge of the cavity of the aluminum alloy mould after the oxidation treatment; and (c) polishing the surface of the cavity of the aluminum alloy mould after the oxidation treatment.
A method for transmitting a device trigger message, comprising: receiving , by a short message service-service center, SMS-SC, a device trigger message that is sent by a machine type communications-inter-working function, MTC-IWF, and is from a service capability server, SCS, wherein the device trigger message comprises information that indicates validity time of the device trigger message; receiving , by the SMS-SC, a message that carries a trigger suppression timer and is sent by a serving node and when it is determined that the trigger suppression timer exists comparing , by the SMS-SC, the validity time with duration of the trigger suppression timer if the validity time is greater than the duration of the trigger suppression timer, sending , by the SMS-SC, the device trigger message to a user equipment, UE, after the trigger suppression timer times out; and if the validity time is not greater than the duration of the trigger suppression timer, sending , by the SMS-SC, a message to the first device and/or discarding , by the SMS-SC, the device trigger message, wherein the message is used to indicate that triggering is rejected, or transmission fails, or device triggering fails. receiving , by a short message service-service center, SMS-SC, a device trigger message that is sent by a machine type communications-inter-working function, MTC-IWF, and is from a service capability server, SCS, wherein the device trigger message comprises information that indicates validity time of the device trigger message; receiving , by the SMS-SC, a message that carries a trigger suppression timer and is sent by a serving node and when it is determined that the trigger suppression timer exists comparing , by the SMS-SC, the validity time with duration of the trigger suppression timer if the validity time is greater than the duration of the trigger suppression timer, sending , by the SMS-SC, the device trigger message to a user equipment, UE, after the trigger suppression timer times out; and if the validity time is not greater than the duration of the trigger suppression timer, sending , by the SMS-SC, a message to the first device and/or discarding , by the SMS-SC, the device trigger message, wherein the message is used to indicate that triggering is rejected, or transmission fails, or device triggering fails.
An apparatus for controlling or operating a technical system , in particular a vehicle, comprising an operating device which exchanges control messages with the system , wherein the apparatus comprises a safety controller connected to the operating device , said safety controller being adapted to reprocess and/or evaluate control messages concerning the operational safety of the system by inserting and/or extracting safety-critical information items in and/or from the control messages, so that these can be implemented by the operating device and/or the system as safety-critical control messages, characterized in that the operating device comprises an unsecured area , in which a first processor unit processes control messages the safety-critical display information items of which concern a display of a safety-critical, graphic element on a graphic user interface for controlling the system , and comprises a secured area , in which a second processor unit compares a supplied reference value to a comparative value, wherein the comparative value is ascertained on the basis of the safety-critical display information items, and wherein the secured area will accept the display of the safety-critical, graphic element only if the two values conform with each other continuously or upon random checking during operation of the operating device .
Thermo-fusible sheet body, usable in particular as a fusible interlining in the textile industry, having a backing ply composed of a textile material and bearing an applied bonding compound structure which comprises a polyurethane coating comprising a polyurethane mixture including at least one polyester urethane (B1), at least one polyetherurethane (B2) and also at least one polycarbonateurethane (B3), the polyurethane mixture having been crosslinked at least partially with a crosslinker comprising at least one isocyanate blocked on at least one isocyanate group with a blocking agent.
Method for producing a material layer for a dynamoelectric rotary machine with a layer thickness (d) between 0.5 and 500 μm with the following steps: - applying a suspension, having at least one binding agent and solid particles, through a template onto a base area in order to obtain a green body, - driving the binding agent out of the green body, in particular by means of debindering, - creating a permanent cohesion of the solid particles by heating and/or by means of compaction, in particular by means of sintering. - applying a suspension, having at least one binding agent and solid particles, through a template onto a base area in order to obtain a green body, - driving the binding agent out of the green body, in particular by means of debindering, - creating a permanent cohesion of the solid particles by heating and/or by means of compaction, in particular by means of sintering.
Device for mixing and dispensing a pasty mass, in particular a bone cement, comprising a cartridge that is open or openable on two ends, in which cartridge a mixing element and a feed plunger is arranged, whereby the feed plunger being in a starting position is arranged in the region of a first cartridge end, the mixing element is arranged on a mixing rod , the mixing rod extending through the feed plunger into the cartridge inside, the mixing rod and the feed plunger and the cartridge together form a tight connection that seals the cartridge inside of the device with respect to the exterior, whereby the feed plunger is arranged such as to be axially mobile on the mixing rod and in the cartridge , characterized in that at least one clamping jaw is arranged on the feed plunger in appropriate manner such that the at least one clamping jaw is pressable against the mixing rod by means of a locking element , such that the mixing rod is no longer shiftable with respect to the feed plunger , wherein the locking element is a part of the feed plunger , that is shiftable on the mixing rod in axial direction with respect to the remaining feed plunger and, upon the locking element being slid or plugged together with the remaining feed plunger , presses the at least one clamping jaw onto the mixing rod such that the mixing rod is no longer shiftable with respect to the feed plunger .
A milk foamer comprising: - a base body ; - a cup body placed on the base body ; - a cup lid placed on the cup body ; and - a stirring mechanism configured to stir milk in the cup body , wherein the stirring mechanism includes a stirring head and a shaft for supporting the stirring head , and wherein a magnetic drive mechanism configured to magnetically drive the stirring head is provided to the base body , characterized in that the milk foamer further comprises a head detection unit detecting whether the stirring head is attached to the shaft or not. - a base body ; - a cup body placed on the base body ; - a cup lid placed on the cup body ; and - a stirring mechanism configured to stir milk in the cup body ,
A method for maintaining an electrospray ionization (ESI) tip at a constant voltage relative to ground while performing a separation reaction, the method comprising: a) applying a first voltage to a proximal end of a separation channel , wherein a distal end of the separation channel is in fluid and electrical communication with the ESI tip ; b) applying a second voltage to a proximal end of an auxiliary fluid channel , wherein a distal end of the auxiliary fluid channel is in fluid and electrical communication with the distal end of the separation channel ; c) performing the separation reaction to separate a mixture of analytes, wherein the separation reaction takes place within the separation channel ; and d) monitoring a change in resistance of the separation channel or a change in voltage at the ESI tip in a feedback loop that adjusts the first and second voltages to maintain a constant voltage drop across the separation channel and a constant voltage at the ESI tip . a) applying a first voltage to a proximal end of a separation channel , wherein a distal end of the separation channel is in fluid and electrical communication with the ESI tip ; b) applying a second voltage to a proximal end of an auxiliary fluid channel , wherein a distal end of the auxiliary fluid channel is in fluid and electrical communication with the distal end of the separation channel ; c) performing the separation reaction to separate a mixture of analytes, wherein the separation reaction takes place within the separation channel ; and d) monitoring a change in resistance of the separation channel or a change in voltage at the ESI tip in a feedback loop that adjusts the first and second voltages to maintain a constant voltage drop across the separation channel and a constant voltage at the ESI tip .