mhurhangee/ep-ind-claims huggingface dataset:
A drive-device-integrated rotating electrical machine, comprising: an electric motor; a drive device equipped with an electronic part for controlling driving of the electric motor and wiring parts; a housing and a heat sink which constitute a drive-device storing section for storing the drive device; and a connector section provided with a power connector for feeding power to the drive device and a signal connector; wherein a radially protruding portion is provided radially on at least one of circumferences of the housing and the heat sink constituting the drive-device storing section; an opening portion is formed on at least one said radially protruding portion; and a connector-connecting portion for electrically connecting the connector section with the drive device is provided in the vicinity of said opening portion, wherein the connector section is attachably/detachably attached onto at least one said opening portion, characterized in that a housing-side one of said opening portion is formed on one of said radially protruding portion provided on the housing, a heat sink-side one of said opening portion is formed on another of said radially protruding portion provided on the heat sink, and a portion for attaching the connector section and the connector-connecting portion are individually provided in the respective opening portions. an electric motor; a drive device equipped with an electronic part for controlling driving of the electric motor and wiring parts; a housing and a heat sink which constitute a drive-device storing section for storing the drive device; and a connector section provided with a power connector for feeding power to the drive device and a signal connector; wherein a radially protruding portion is provided radially on at least one of circumferences of the housing and the heat sink constituting the drive-device storing section; an opening portion is formed on at least one said radially protruding portion; and a connector-connecting portion for electrically connecting the connector section with the drive device is provided in the vicinity of said opening portion, wherein the connector section is attachably/detachably attached onto at least one said opening portion, characterized in that a housing-side one of said opening portion is formed on one of said radially protruding portion provided on the housing, a heat sink-side one of said opening portion is formed on another of said radially protruding portion provided on the heat sink, and a portion for attaching the connector section and the connector-connecting portion are individually provided in the respective opening portions.
A lithium-polymer based battery pack for powering a hand held power tool or a garden tool, the battery pack comprising: a housing selectively connectable to and supportable by a hand held power tool or a garden tool, a plurality of battery cells located within the housing, the plurality of cells being interconnected to have a combined nominal output voltage of at least 4 volts and being capable to produce an average discharge current of greater than 10 amps, wherein each battery cell has a lithium-polymer based chemistry and a nominal charged internal impedance of less than or equal to approximately 10 milliohms, characterized in that each of the plurality of battery cells is supported within the housing in a resiliently deformable cradle surrounding at least a part of each battery cell, wherein each resiliently deformable cradle comprises side edges so as to provide a mechanical protection for sides of each of the plurality of battery cells, and a cradle frame fitted with a cover, arranged to hold a stack of the plurality of battery cells each held within its own respective resiliently deformable cradle, wherein the cradle frame fits within the housing such that the plurality of battery cells are mechanically supported against variations and shocks experienced during use of the battery pack. a housing selectively connectable to and supportable by a hand held power tool or a garden tool, a plurality of battery cells located within the housing, the plurality of cells being interconnected to have a combined nominal output voltage of at least 4 volts and being capable to produce an average discharge current of greater than 10 amps, wherein each battery cell has a lithium-polymer based chemistry and a nominal charged internal impedance of less than or equal to approximately 10 milliohms, characterized in that each of the plurality of battery cells is supported within the housing in a resiliently deformable cradle surrounding at least a part of each battery cell, wherein each resiliently deformable cradle comprises side edges so as to provide a mechanical protection for sides of each of the plurality of battery cells, and a cradle frame fitted with a cover, arranged to hold a stack of the plurality of battery cells each held within its own respective resiliently deformable cradle, wherein the cradle frame fits within the housing such that the plurality of battery cells are mechanically supported against variations and shocks experienced during use of the battery pack.
Electrical component comprising a conductor which has a plurality of conductor sections (3a, 3b, 3c), wherein - the conductor sections (3a, 3b, 3c) are electrically short-circuited, and - the short circuit is at least partially eliminated when the temperature of the component exceeds a limit value, characterized in that - an expansion material is arranged between the conductor sections (3a, 3b, 3c), the volume of said expansion material increasing when the temperature of the component exceeds the limit value. - the conductor sections (3a, 3b, 3c) are electrically short-circuited, and - the short circuit is at least partially eliminated when the temperature of the component exceeds a limit value, characterized in that - an expansion material is arranged between the conductor sections (3a, 3b, 3c), the volume of said expansion material increasing when the temperature of the component exceeds the limit value.
A negative active material comprising primary particles, each primary particle comprising: a crystalline carbonaceous core with silicon-based nanowires on a surface thereof; and an amorphous carbonaceous coating layer coated on the crystalline carbonaceous core so as to embed at least a portion of the silicon-based nanowires, wherein at least 50 vol% of the silicon-based nanowires is embedded in the amorphous carbonaceous coating layer. a crystalline carbonaceous core with silicon-based nanowires on a surface thereof; and an amorphous carbonaceous coating layer coated on the crystalline carbonaceous core so as to embed at least a portion of the silicon-based nanowires, wherein at least 50 vol% of the silicon-based nanowires is embedded in the amorphous carbonaceous coating layer.
A method of detecting intrusions on a system or network, the method comprising: identifying a plurality of instance types in which each instance type includes an instance; identifying a compromised instance having an identified forensic artefact of intrusion from the plurality of instance types; traversing a link between instance types from the compromised instance to discover an additional compromised instance via a graph-based constrained optimization including optimizing an objective function with respect to variables in the presence of constraints on the variables; and adding the additional compromised instance to a list of known compromised instances. identifying a plurality of instance types in which each instance type includes an instance; identifying a compromised instance having an identified forensic artefact of intrusion from the plurality of instance types; traversing a link between instance types from the compromised instance to discover an additional compromised instance via a graph-based constrained optimization including optimizing an objective function with respect to variables in the presence of constraints on the variables; and adding the additional compromised instance to a list of known compromised instances.
A method for fabricating a light emitting diode structure comprising: forming LED layers by epitaxially growing an N-type layer over a growth substrate, epitaxially growing an active layer over the N-type layer, and epitaxially growing a P-type layer over the active layer; electrically isolating areas of the LED layers to create substantially electrically isolated LEDs by forming isolation regions (16, 24, 80, 90, 100, 106) between individual LEDs (46, 94), the electrically isolated regions being at least a portion of a layer epitaxially grown over the growth substrate and located between the growth substrate and the active layer; mounting the LEDs on a submount wafer prior to removing the growth substrate, the LEDs being mechanically coupled together by the isolation regions; interconnecting groups of individual LEDs by a metal pattern to form at least a plurality of LEDs in series, while the LEDs are mechanically coupled together by the isolation regions; and removing the growth substrate; characterized in that, the isolation regions are semi-insulating and are part of an isolation layer (16, 80, 100, 106), and the method further comprises applying a bias voltage to the isolation layer through the N-type layer; and performing a photo-electrochemical etch of the isolation layer while biasing the isolation layer separating the submount wafer to form modules of interconnected LEDs, each module including a submount that was a portion of the submount wafer. forming LED layers by epitaxially growing an N-type layer over a growth substrate, epitaxially growing an active layer over the N-type layer, and epitaxially growing a P-type layer over the active layer; electrically isolating areas of the LED layers to create substantially electrically isolated LEDs by forming isolation regions (16, 24, 80, 90, 100, 106) between individual LEDs (46, 94), the electrically isolated regions being at least a portion of a layer epitaxially grown over the growth substrate and located between the growth substrate and the active layer; mounting the LEDs on a submount wafer prior to removing the growth substrate, the LEDs being mechanically coupled together by the isolation regions; interconnecting groups of individual LEDs by a metal pattern to form at least a plurality of LEDs in series, while the LEDs are mechanically coupled together by the isolation regions; and removing the growth substrate; characterized in that, the isolation regions are semi-insulating and are part of an isolation layer (16, 80, 100, 106), and the method further comprises applying a bias voltage to the isolation layer through the N-type layer; and performing a photo-electrochemical etch of the isolation layer while biasing the isolation layer separating the submount wafer to form modules of interconnected LEDs, each module including a submount that was a portion of the submount wafer.
A high density laser optics apparatus, comprising: a plurality of first vertical cavity surface emitting lasers, VCSELs (444-1 to 444-N), in a monolithically integrated array (443, 552-1); a high contrast grating, HCG, integrated with an aperture of a vertical cavity of each of the plurality of the first VCSELs to enable emission of a single lasing wavelength of a plurality of discrete lasing wavelengths; and a plurality of single mode waveguides (445-1 to 445-N), each integrated with a grating coupler and connected to each of the plurality of the first integrated VCSELs with the corresponding integrated HCG, wherein each of the grating couplers is aligned to an integrated VCSEL and the corresponding HCG, and wherein each HCG has a pitch and a duty cycle that is configured to produce said discrete single lasing wavelength that differs from that of each of the other VCSELs in the plurality of first VCSELs. a plurality of first vertical cavity surface emitting lasers, VCSELs (444-1 to 444-N), in a monolithically integrated array (443, 552-1); a high contrast grating, HCG, integrated with an aperture of a vertical cavity of each of the plurality of the first VCSELs to enable emission of a single lasing wavelength of a plurality of discrete lasing wavelengths; and a plurality of single mode waveguides (445-1 to 445-N), each integrated with a grating coupler and connected to each of the plurality of the first integrated VCSELs with the corresponding integrated HCG, wherein each of the grating couplers is aligned to an integrated VCSEL and the corresponding HCG, and wherein each HCG has a pitch and a duty cycle that is configured to produce said discrete single lasing wavelength that differs from that of each of the other VCSELs in the plurality of first VCSELs.
A coating composition comprising a luminophoric material, wherein the luminophoric material is a pyridine-containing ligand chosen from a terpyridine derived from a compound of the formula: and/or and wherein R 1 -R 11 are independently chosen from an alkyl, a substituted alkyl, an aryl, a substituted aryl, an inert functional group, an alkoxysilyl functional group, and an alcohol functional group, optionally any two of R 1 -R 11 vicinal to one another, R 1 /R 11 and/or R 3 /R 4 taken together may form a ring being a substituted or unsubstituted, saturated, or unsaturated cyclic structure, with the proviso that the compound comprises an alkoxysilyl functional group, an alcohol functional group, or a combination of two or more thereof, and wherein the alcohol functional group of the compound of the formula is chosen from a compound of the formula -O-(CH 2) m -OH where m is 1-20, the alkoxysilyl functional group of the compound of the formula is chosen from a functional group of the formula: -(CH 2) n -Si(OR 12) 3, where R 12 is C p H 2p+1, p is 1-10, and n is 1-20, the alkoxysilyl functional group of the compound of the general formula is chosen from a functional group of the formula: -O-(CH 2) q -NH-C -NH-(CH 2) r -Si(OR 13) 3, wherein q and r are independently 1-20, and R 13 is C p H 2p+1 where p is 1-10, and the alkoxysilyl functional group of the compound of the general formula is chosen from a functional group of the formula: -O-(CH 2) q -O-C -NH-(CH 2) r -Si(OR 13) 3, where A 1 and A 2 are independently chosen from an oxygen atom or NH, q and r are independently 1-20, and R 13 is C p H 2p+1 where p is 1-10. wherein R 1 -R 11 are independently chosen from an alkyl, a substituted alkyl, an aryl, a substituted aryl, an inert functional group, an alkoxysilyl functional group, and an alcohol functional group, optionally any two of R 1 -R 11 vicinal to one another, R 1 /R 11 and/or R 3 /R 4 taken together may form a ring being a substituted or unsubstituted, saturated, or unsaturated cyclic structure, with the proviso that the compound comprises an alkoxysilyl functional group, an alcohol functional group, or a combination of two or more thereof, and wherein the alcohol functional group of the compound of the formula is chosen from a compound of the formula -O-(CH 2) m -OH where m is 1-20, the alkoxysilyl functional group of the compound of the formula is chosen from a functional group of the formula: -(CH 2) n -Si(OR 12) 3, where R 12 is C p H 2p+1, p is 1-10, and n is 1-20, the alkoxysilyl functional group of the compound of the general formula is chosen from a functional group of the formula: -O-(CH 2) q -NH-C -NH-(CH 2) r -Si(OR 13) 3, wherein q and r are independently 1-20, and R 13 is C p H 2p+1 where p is 1-10, and the alkoxysilyl functional group of the compound of the general formula is chosen from a functional group of the formula: -O-(CH 2) q -O-C -NH-(CH 2) r -Si(OR 13) 3, where A 1 and A 2 are independently chosen from an oxygen atom or NH, q and r are independently 1-20, and R 13 is C p H 2p+1 where p is 1-10.
An apparatus, comprising: a touch layer comprising a touch surface that comprises one or more key tops configured to identify one or more keys to a user; a key sensing circuitry configured to detect a key press of any one or more of the key tops; a sensing layer that has a network of capacitive touch detectors configured to continually detect touching of the touch surface; and an elastic layer between the key sensing circuitry and the key tops configured to relay pressing forces from the key tops to the key sensing circuitry; wherein: the network of touch detectors is formed onto the elastic layer or onto a rear surface of an exterior layer that forms the key tops; and the sensing layer is located immediately behind the touch layer. a touch layer comprising a touch surface that comprises one or more key tops configured to identify one or more keys to a user; a key sensing circuitry configured to detect a key press of any one or more of the key tops; a sensing layer that has a network of capacitive touch detectors configured to continually detect touching of the touch surface; and an elastic layer between the key sensing circuitry and the key tops configured to relay pressing forces from the key tops to the key sensing circuitry; wherein: the network of touch detectors is formed onto the elastic layer or onto a rear surface of an exterior layer that forms the key tops; and the sensing layer is located immediately behind the touch layer. the network of touch detectors is formed onto the elastic layer or onto a rear surface of an exterior layer that forms the key tops; and the sensing layer is located immediately behind the touch layer.
A device for producing a three-dimensional object by solidifying a material solidifiable under the action of electromagnetic radiation through energy input via an imaging unit which comprises a certain number of discrete imaging elements or pixels, characterized in that the device comprises a computer unit, an IC and/or a software implementation, respectively with the ability of adjusting and/or controlling the energy input via a specific gray value and/or color value, wherein the energy input is controlled via a specific gray value and/or color value depending on: (i) degree of overlapping of the raster pixels by the vector graphic; and/or (ii) size of the area of a cross-sectional image of the three-dimensional object. (i) degree of overlapping of the raster pixels by the vector graphic; and/or (ii) size of the area of a cross-sectional image of the three-dimensional object.
A surgical retractor, comprising: a blade portion having a top surface and a bottom surface, and having a proximal end and a distal end, said blade portion comprising a smoke evacuation channel; a handle portion connected to said proximal end of said blade portion; and an illumination assembly comprising at least one light source, at least one battery and a switch for energizing the light source, with the illumination assembly being attached to the retractor, characterized in that the smoke evacuation channel incorporates the light source within the smoke evacuation channel. a blade portion having a top surface and a bottom surface, and having a proximal end and a distal end, said blade portion comprising a smoke evacuation channel; a handle portion connected to said proximal end of said blade portion; and an illumination assembly comprising at least one light source, at least one battery and a switch for energizing the light source, with the illumination assembly being attached to the retractor, characterized in that the smoke evacuation channel incorporates the light source within the smoke evacuation channel.
A rotation device (10, 100, 200) for rotating a wind turbine generator (7, 57, 67) configured to be rotated by wind and to convert wind energy into electrical energy, the rotation device (10, 100, 200) comprising: at least one rotary device configured to couple with an outer surface of the wind turbine generator (7, 57, 67), and a motor device for driving the rotary device such as to thereby rotate the wind turbine generator (7, 57, 67) about a generator rotation axis, wherein the rotation device (10, 100, 200) comprises a support device (12, 30) for holding the rotary device, the support device (12, 30) being configured to elevate and lower the rotary device such that the rotary device couples with the outer surface of the wind turbine generator (7, 57, 67) in an elevated position and such that the rotary device is separated from the outer surface of the wind turbine generator (7, 57, 67) in a lowered position. at least one rotary device configured to couple with an outer surface of the wind turbine generator (7, 57, 67), and a motor device for driving the rotary device such as to thereby rotate the wind turbine generator (7, 57, 67) about a generator rotation axis, wherein the rotation device (10, 100, 200) comprises a support device (12, 30) for holding the rotary device, the support device (12, 30) being configured to elevate and lower the rotary device such that the rotary device couples with the outer surface of the wind turbine generator (7, 57, 67) in an elevated position and such that the rotary device is separated from the outer surface of the wind turbine generator (7, 57, 67) in a lowered position.
An on-skin sensor system configured for transcutaneous monitoring of a host, the system comprising: a sensor module housing (134, 312, 312d, 312e), the sensor module housing (134, 312, 312d, 312e) including a first flex arm; a sensor (138a, 138b) having a first section configured for subcutaneous sensing and a second section mechanically coupled to the sensor module housing (134, 312, 312d, 312e); an electrical interconnect coupled to the sensor module housing (134, 312, 312d, 312e) and to the sensor (138a, 138b); and a base coupled to the first flex arm of the sensor module housing (134, 312, 312d, 312e), the base having an adhesive configured to couple the base to the skin of the host, characterised in that the sensor module housing (134, 312, 312d, 312e) comprises a proximal protrusion having a channel in which at least a portion of the second section of the sensor is located. a sensor module housing (134, 312, 312d, 312e), the sensor module housing (134, 312, 312d, 312e) including a first flex arm; a sensor (138a, 138b) having a first section configured for subcutaneous sensing and a second section mechanically coupled to the sensor module housing (134, 312, 312d, 312e); an electrical interconnect coupled to the sensor module housing (134, 312, 312d, 312e) and to the sensor (138a, 138b); and a base coupled to the first flex arm of the sensor module housing (134, 312, 312d, 312e), the base having an adhesive configured to couple the base to the skin of the host, characterised in that the sensor module housing (134, 312, 312d, 312e) comprises a proximal protrusion having a channel in which at least a portion of the second section of the sensor is located.