mhurhangee/ep-ind-claims huggingface dataset:
Headlamp device, in particular motor vehicle headlamp, for selectively emitting at least light of a first and/or second kind, comprising at least the components: - a printed circuit board arrangement, on which are arranged an illuminant of a first type for emitting light of a first kind and an illuminant of a second type for emitting light of a second kind, as well as a supply device for electrically supplying the illuminant; - a printed circuit board carrier for receiving and/or holding the printed circuit board arrangement at least in sections; - an optical cover element for directing the light emitted by the illuminants of the first and second type; and - a headlight housing for at least receiving the printed circuit board carrier, and wherein a first printed circuit board section of the printed circuit board arrangement is assigned to the illuminant of the first type and another printed circuit board section of the printed circuit board arrangement is assigned to the illuminant of the second type, wherein the printed circuit board carrier has a receiving section for receiving the cover element at least in sections and/or a contact section for contact with the cover element, characterized in that at least the printed circuit board arrangement and the printed circuit board carrier are cast together with the headlamp housing and in that both printed circuit board sections (41, 42) assigned to the light of the first kind and to the light of the second kind are arranged offset to each other in a main beam direction, and the cover element has a section assigned to the light of the first kind and a section assigned to the light of the second kind. - a printed circuit board arrangement, on which are arranged an illuminant of a first type for emitting light of a first kind and an illuminant of a second type for emitting light of a second kind, as well as a supply device for electrically supplying the illuminant; - a printed circuit board carrier for receiving and/or holding the printed circuit board arrangement at least in sections; - an optical cover element for directing the light emitted by the illuminants of the first and second type; and - a headlight housing for at least receiving the printed circuit board carrier, and wherein a first printed circuit board section of the printed circuit board arrangement is assigned to the illuminant of the first type and another printed circuit board section of the printed circuit board arrangement is assigned to the illuminant of the second type, wherein the printed circuit board carrier has a receiving section for receiving the cover element at least in sections and/or a contact section for contact with the cover element, characterized in that at least the printed circuit board arrangement and the printed circuit board carrier are cast together with the headlamp housing and in that both printed circuit board sections (41, 42) assigned to the light of the first kind and to the light of the second kind are arranged offset to each other in a main beam direction, and the cover element has a section assigned to the light of the first kind and a section assigned to the light of the second kind.
A LED driving apparatus which drives a plurality of LED arrays, the LED driving apparatus comprising: a DC-DC converter which provides a driving voltage to the plurality of LED arrays; a plurality of switching units which is connected in series to each of the plurality of LED arrays and varies a size of a driving current to flow in each of the plurality of LED arrays; and a control unit, characterized in that the control unit, in order for each of the switching units to operate within a predetermined headroom voltage range, is configured to calculate a driving current of each of the plurality of LED arrays and a duty cycle of a switching unit corresponding to each of the plurality of LED arrays, and control the plurality of switching units based on the calculated driving current and the calculated duty cycle. a DC-DC converter which provides a driving voltage to the plurality of LED arrays; a plurality of switching units which is connected in series to each of the plurality of LED arrays and varies a size of a driving current to flow in each of the plurality of LED arrays; and a control unit, characterized in that the control unit, in order for each of the switching units to operate within a predetermined headroom voltage range, is configured to calculate a driving current of each of the plurality of LED arrays and a duty cycle of a switching unit corresponding to each of the plurality of LED arrays, and control the plurality of switching units based on the calculated driving current and the calculated duty cycle.
A microwave forceps for sealing tissue, comprising: at least one shaft member having an end effector assembly disposed at a distal end thereof, the end effector assembly including first and second opposing jaw members (510,520) movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members cooperate to grasp tissue therebetween, each of the jaw members including a sealing surface (512,522); and a microwave antenna assembly configured to couple to a microwave energy source, the microwave antenna assembly disposed on the sealing surface of the first jaw member, characterized in that said microwave antenna assembly comprises a patch antenna coupled to an active element of the microwave energy source. at least one shaft member having an end effector assembly disposed at a distal end thereof, the end effector assembly including first and second opposing jaw members (510,520) movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members cooperate to grasp tissue therebetween, each of the jaw members including a sealing surface (512,522); and a microwave antenna assembly configured to couple to a microwave energy source, the microwave antenna assembly disposed on the sealing surface of the first jaw member, characterized in that said microwave antenna assembly comprises a patch antenna coupled to an active element of the microwave energy source.
A plate insert for an article of footwear, comprising: a plurality of cutouts extending substantially transversely to a longitudinal axis of the plate defining at least three adjacent, transversely-extending, elongate elements, the elongate elements having endpoints adapted to be disposed towards a lateral side and a medial side of a user's foot, wherein the elongate elements are connected together in a continuous snake shape, wherein each adjacent elongate element is interconnected to another adjacent elongate element by at least one support rib oriented substantially parallel to a longitudinal axis of the plate, wherein the support ribs extend across the plurality of cutouts to aid in stress dissipation, wherein said plate insert is adapted to substantially correspond to one or more of a forefoot, midfoot and/or rearfoot of a wearer's foot. a plurality of cutouts extending substantially transversely to a longitudinal axis of the plate defining at least three adjacent, transversely-extending, elongate elements, the elongate elements having endpoints adapted to be disposed towards a lateral side and a medial side of a user's foot, wherein the elongate elements are connected together in a continuous snake shape, wherein each adjacent elongate element is interconnected to another adjacent elongate element by at least one support rib oriented substantially parallel to a longitudinal axis of the plate, wherein the support ribs extend across the plurality of cutouts to aid in stress dissipation, wherein said plate insert is adapted to substantially correspond to one or more of a forefoot, midfoot and/or rearfoot of a wearer's foot.
Reciprocating saw having an output spindle that moves back and forth and a drive motor, which are coupled to each other via a gear mechanism, a long side of the output spindle and a long side of the drive motor extending beside each other, so that the drive motor is arranged beside the output spindle, the output spindle having a fixing section for fixing a tool, that the drive motor has a drive section connected to the gear mechanism and a first end remote from the gear mechanism, and that the first end of the drive motor that is remote from the gear mechanism is arranged closer to the fixing section than the drive section connected to the gear mechanism, characterized in that the gear mechanism comprises a swash-plate assembly, which is arranged on a gear mechanism shaft which extends parallel to the longitudinal axis of the drive motor.
A process for anaerobic digestion of food waste comprising hydrolysis, acid forming and methanogenesis, wherein a catalyst is added to the food waste to stimulate microbial activity in anaerobic process, wherein the catalyst comprises a biological agent comprising Cellulolytic bacteria and enzymes; wherein the biological agent comprising Cellulolytic bacteria consists of cultures Pseudomonas koreensis, Pseudomonas veronii, Pseudomonas moraviensis, Bacillus wiedmannii, Stenotrophomonas tumulicola and Bacillus licheniformis in ratio 1-2:1-2:1-2:1-2:1-2:1-2.
A wheel assembly of a mobile robot, comprising: a wheel gear box assembly which includes a main wheel to move a mobile robot, a driving motor and a gear which rotate the main wheel and generates a hinge torque to a first hinge axis equipped at one side by the rotation of the main wheel to be rotatable within a predetermined range; characterized in that, a hinge shaft which has one side end coupled to the first hinge axis of the wheel gear box assembly and rotates the wheel gear box assembly by means of a second hinge axis equipped at the other side end; and a wheel upper cover which is coupled to the wheel gear box assembly to protect an upper portion and includes a second hinge axis mounting unit formed at the other side end to be coupled to the second hinge axis. a wheel gear box assembly which includes a main wheel to move a mobile robot, a driving motor and a gear which rotate the main wheel and generates a hinge torque to a first hinge axis equipped at one side by the rotation of the main wheel to be rotatable within a predetermined range; characterized in that, a hinge shaft which has one side end coupled to the first hinge axis of the wheel gear box assembly and rotates the wheel gear box assembly by means of a second hinge axis equipped at the other side end; and a wheel upper cover which is coupled to the wheel gear box assembly to protect an upper portion and includes a second hinge axis mounting unit formed at the other side end to be coupled to the second hinge axis.
A method for detecting the presence and/or determining at least one position of at least one object on or near a measurement surface of an electronic device, which comprises an oscillating signal propagation medium and a measurement circuit, for which the electronic device comprises as propagation medium, an electrode array of capacitive sensors, which comprises several electrodes disposed close to one another in matrix form, a major part of the capacitive electrodes being floating electrodes, that is to say without being connected by conductive tracks to the measurement circuit or to the neighbouring electrodes, while some electrodes at the periphery are connected by conductive tracks to the measurement circuit, the method comprising the steps of: - providing at least two oscillating signals (Sr1, Sr2) at the input each to a respective input electrode at the periphery of a first part of the electrode array, the two electrodes receiving the oscillating input signals, being spaced from each other, - receiving, by the at least two oscillating signals (Sout) having passed through the propagation medium, which defines a transfer function of the oscillating signals, at least one output measurement signal (Sout) by an output electrode at the periphery of a second part of the electrode array, the input electrodes and the output electrode being disposed to cover an entire detection area of the measurement surface, - performing, in the measurement circuit, a measurement of a coupling or an attenuation induced by the presence on the at least two oscillating signals passing through the propagation medium of an object placed on or near the measurement surface, so as to determine the position of the object in the detection area of the measurement surface depending on the modification of the transfer function of the medium. - providing at least two oscillating signals (Sr1, Sr2) at the input each to a respective input electrode at the periphery of a first part of the electrode array, the two electrodes receiving the oscillating input signals, being spaced from each other, - receiving, by the at least two oscillating signals (Sout) having passed through the propagation medium, which defines a transfer function of the oscillating signals, at least one output measurement signal (Sout) by an output electrode at the periphery of a second part of the electrode array, the input electrodes and the output electrode being disposed to cover an entire detection area of the measurement surface, - performing, in the measurement circuit, a measurement of a coupling or an attenuation induced by the presence on the at least two oscillating signals passing through the propagation medium of an object placed on or near the measurement surface, so as to determine the position of the object in the detection area of the measurement surface depending on the modification of the transfer function of the medium.
A curable composition comprising: at least one monomer comprising at least one (meth)acryl group; and a photoinitiator system comprising: at least one cyclic β-diketone represented by the formula or a tautomer thereof, wherein: R 1 represents an organic moiety having at least one free-radically polymerizable group; each R 2 independently represents H or an aliphatic group having from 1 to 12 carbon atoms, and up to two of oxygen and sulfur atoms; and n represents 1, 2, or 3; and at least one Type II photoinitiator. at least one monomer comprising at least one (meth)acryl group; and a photoinitiator system comprising: at least one cyclic β-diketone represented by the formula or a tautomer thereof, wherein: R 1 represents an organic moiety having at least one free-radically polymerizable group; each R 2 independently represents H or an aliphatic group having from 1 to 12 carbon atoms, and up to two of oxygen and sulfur atoms; and n represents 1, 2, or 3; and at least one Type II photoinitiator. at least one cyclic β-diketone represented by the formula or a tautomer thereof, wherein: R 1 represents an organic moiety having at least one free-radically polymerizable group; each R 2 independently represents H or an aliphatic group having from 1 to 12 carbon atoms, and up to two of oxygen and sulfur atoms; and n represents 1, 2, or 3; and at least one Type II photoinitiator. R 1 represents an organic moiety having at least one free-radically polymerizable group; each R 2 independently represents H or an aliphatic group having from 1 to 12 carbon atoms, and up to two of oxygen and sulfur atoms; and n represents 1, 2, or 3; and at least one Type II photoinitiator.
A bailout system for use with a surgical instrument, wherein the surgical instrument includes a motor and an interface, said bailout system comprising: a processor; and a memory coupled to said processor to store program instructions, which when executed from said memory cause said processor to: detect an error requiring mechanical bailout of said surgical instrument; disable said motor in response to said detection of said error; alert a user of the surgical instrument through the interface to perform said mechanical bailout; and provide instructions for the user through the interface to perform said mechanical bailout. a processor; and a memory coupled to said processor to store program instructions, which when executed from said memory cause said processor to: detect an error requiring mechanical bailout of said surgical instrument; disable said motor in response to said detection of said error; alert a user of the surgical instrument through the interface to perform said mechanical bailout; and provide instructions for the user through the interface to perform said mechanical bailout. detect an error requiring mechanical bailout of said surgical instrument; disable said motor in response to said detection of said error; alert a user of the surgical instrument through the interface to perform said mechanical bailout; and provide instructions for the user through the interface to perform said mechanical bailout.
Waterwheel apparatus comprising a breastshot waterwheel and an incoming water flow, the breastshot waterwheel configured to extract energy from the incoming water flow, the waterwheel being rotatable about an axis and comprising a plurality of paddles (14, 18, 23, 27, 28, 29, 31), each of the said paddles being in communication with the incoming water flow for a respective water receiving portion of a rotation cycle of the waterwheel about the axis, wherein, during the water receiving portion of the rotation cycle for a said paddle, the incoming water flow flows onto a water receiving surface of the paddle, the water receiving surface extending between first (20A, 30A) and second ends (20B, 30B) of the paddle, the first end being upstream of the second end, the apparatus comprising a channel configured to direct the incoming water flow onto the waterwheel to thereby define the principal flow direction of the incoming water flow onto the waterwheel and to determine the angle between the principal flow direction and the tangent to the water receiving surface of the first end of each said paddle in communication with the incoming waterflow such that the principal flow direction of the incoming water flow forms an acute angle between the principal flow direction of the incoming water flow and a horizontal plane of less than 10° and the incoming water flow flows in a direction forming an acute angle with the horizontal plane of less than 10° across said first end of the paddle onto an upstream portion of the water receiving surface, wherein at least a portion of the incoming water flow received by the upstream portion of the water receiving surface flows from the upstream portion onto a downstream portion of said water receiving surface thereby changing direction and exerting a force on the paddle causing the waterwheel to rotate about the said axis in a rotational direction, wherein during the water receiving portion the angle (β) between the principal flow direction of the incoming water flow and a tangent to the water receiving surface at the first end of said paddle (20A, 30A), said tangent being in a plane of rotation of the waterwheel about said axis, is less than 35° when the water receiving surface faces upstream and less than 10° when the water receiving surface faces downstream.
A multi-layer product comprising: a first layer having pre-formed lines of separation defining one or more first portions; a second layer having pre-formed lines of separation defining one or more second portions; and an adhesive layer between the first and second layers (10, 20); characterised in that a release layer is provided between the second layer and the adhesive layer; and at least part of the or each second portion is fixedly secured to a respective one of the one or more first portions at one or more securing locations (30; 31; 32, 34; 35). a first layer having pre-formed lines of separation defining one or more first portions; a second layer having pre-formed lines of separation defining one or more second portions; and an adhesive layer between the first and second layers (10, 20); characterised in that a release layer is provided between the second layer and the adhesive layer; and at least part of the or each second portion is fixedly secured to a respective one of the one or more first portions at one or more securing locations (30; 31; 32, 34; 35).
A water-in-oil emulsified cosmetic that characteristically comprises the following (a)-(d) wherein the total blend ratio of (a) and (b) is 7-40 wt%: (a) Isododecane 3.0-30 wt% (b) Dodecamethylcyclohexasiloxane 1.0-10 wt% (c) Alkyl/polyether comodified silicone having branched siloxane bonds 0.1-5.0 wt% (d) One or more ultraviolet absorbents selected from 2-hydroxy-4-methoxybenzophenone and diethylamino hydroxybenzoyl hexyl benzoate 0.1-5 wt%, and wherein the blend ratio (mass ratio) of (a) and (b) is (b)/(a) = 0.2-0.8. (a) Isododecane 3.0-30 wt% (b) Dodecamethylcyclohexasiloxane 1.0-10 wt% (c) Alkyl/polyether comodified silicone having branched siloxane bonds 0.1-5.0 wt% (d) One or more ultraviolet absorbents selected from 2-hydroxy-4-methoxybenzophenone and diethylamino hydroxybenzoyl hexyl benzoate 0.1-5 wt%, and wherein the blend ratio (mass ratio) of (a) and (b) is (b)/(a) = 0.2-0.8.
An apparatus comprising: an electrode; a waveform generator connected to the electrode; and a controller configured to control the waveform generator to: first apply a direct current to an axon of a nerve, the DC having a first DC amplitude not being sufficient to produce a nerve conduction block in the axon; then increase, over a first period of time, the first DC amplitude to a second DC amplitude being sufficient to produce a nerve block in the axon; after the second DC amplitude is reached apply a high frequency alternating current (HFAC) to the axon, the HFAC having an HFAC amplitude, an HFAC frequency above 1kHz, and an HFAC current, the HFAC being configured to produce a nerve conduction block in the axon; and then decrease, over a second period of time, the second DC amplitude to a third DC amplitude not being sufficient to produce a nerve block in the axon, thereby forming a ramped DC block waveform; wherein the controller is configured to apply the second DC amplitude together with the HFAC for a predetermined time and to apply the HFAC to extend beyond application of the ramped DC block waveform. an electrode; a waveform generator connected to the electrode; and a controller configured to control the waveform generator to: first apply a direct current to an axon of a nerve, the DC having a first DC amplitude not being sufficient to produce a nerve conduction block in the axon; then increase, over a first period of time, the first DC amplitude to a second DC amplitude being sufficient to produce a nerve block in the axon; after the second DC amplitude is reached apply a high frequency alternating current (HFAC) to the axon, the HFAC having an HFAC amplitude, an HFAC frequency above 1kHz, and an HFAC current, the HFAC being configured to produce a nerve conduction block in the axon; and then decrease, over a second period of time, the second DC amplitude to a third DC amplitude not being sufficient to produce a nerve block in the axon, thereby forming a ramped DC block waveform; wherein the controller is configured to apply the second DC amplitude together with the HFAC for a predetermined time and to apply the HFAC to extend beyond application of the ramped DC block waveform. first apply a direct current to an axon of a nerve, the DC having a first DC amplitude not being sufficient to produce a nerve conduction block in the axon; then increase, over a first period of time, the first DC amplitude to a second DC amplitude being sufficient to produce a nerve block in the axon; after the second DC amplitude is reached apply a high frequency alternating current (HFAC) to the axon, the HFAC having an HFAC amplitude, an HFAC frequency above 1kHz, and an HFAC current, the HFAC being configured to produce a nerve conduction block in the axon; and then decrease, over a second period of time, the second DC amplitude to a third DC amplitude not being sufficient to produce a nerve block in the axon, thereby forming a ramped DC block waveform; wherein the controller is configured to apply the second DC amplitude together with the HFAC for a predetermined time and to apply the HFAC to extend beyond application of the ramped DC block waveform.