mhurhangee/ep-ind-claims huggingface dataset:
A container for disposable spray gun components comprising a container front surface; a container rear surface; a sidewall enclosing at least a rear portion of a storage volume and forming at least a portion of the container rear surface, the at least one sidewall comprising an opening perimeter proximate a front portion of the storage volume and defining a front opening; a first decorative panel removably positioned in the front opening to substantially enclose the front portion of the storage volume and form at least a portion of the container front surface; wherein the sidewall comprises: an ingress portion for loading disposable spray gun components into the storage volume; and an egress portion for dispensing disposable spray gun components from the storage volume, and wherein the first decorative panel comprises a sheet that is deformed from a relaxed state to an installed state to be positioned in the front opening. an ingress portion for loading disposable spray gun components into the storage volume; and an egress portion for dispensing disposable spray gun components from the storage volume, and
Sugar-free liquid pharmaceutical formulation comprising an aqueous solution of paracetamol, a solubilizing agent containing polyethylene glycol, a thickening agent containing xanthan gum, and a sweetening system containing sucralose and a mixture of polyols containing glycerol, sorbitol and xylitol in a total amount between 15% and 35% w/v relative to the total volume of said pharmaceutical formulation.
A hydraulic valve comprising a hydraulic ram and a split ring assembly for adjusting the throughput of a fluid of the hydraulic valve, the split ring assembly comprising an elastomeric element being adapted to mount a split ring around the hydraulic ram, wherein the elastomeric element is arranged around the outward circumference of the split ring, wherein the throughput of the fluid is adjustable depending on the degree to which the throughput of hydraulic fluid is limited by the split ring; and wherein the split ring assembly is movable and the hydraulic ram is fixed, wherein the split ring assembly is movable along the longitudinal axis of the hydraulic ram in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid through the hydraulic valve, or the split ring assembly is fixed and the hydraulic ram is movable along the longitudinal axis of the hydraulic ram to position the hydraulic ram in relation to the split ring assembly in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid.. wherein the throughput of the fluid is adjustable depending on the degree to which the throughput of hydraulic fluid is limited by the split ring; and wherein the split ring assembly is movable and the hydraulic ram is fixed, wherein the split ring assembly is movable along the longitudinal axis of the hydraulic ram in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid through the hydraulic valve, or the split ring assembly is fixed and the hydraulic ram is movable along the longitudinal axis of the hydraulic ram to position the hydraulic ram in relation to the split ring assembly in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid..
A method of producing a toothed workpiece having a modified surface geometry by a diagonal generating method by means of a modified tool, wherein a tool is used whose surface geometry comprises a modification which a) can be described at least approximately at least locally in the generating pattern in a first direction of the tool by a linear or quadratic function; wherein the coefficients of this linear and/or quadratic function are formed in a second direction of the tool which extends perpendicular to the first direction by coefficient functions F FtC,1 for the constant function, F FtL,1 for the linear function and/or F FtQ,1 for the quadratic function and/or b) is a modification whose pitch and/or crowning varies in dependence on the tool width position in a first direction of the tool that includes an angle ρ F1 not equal to zero with respect to the tool width direction, and wherein the specific modification of the tool by the diagonal generating method produces a corresponding modification on the surface of the workpiece, wherein the modification of the workpiece produced by the specific modification of the tool is superposed by a profile modification and/or a modification caused by a change of the machine kinematics during the machining process of the workpiece. wherein a tool is used whose surface geometry comprises a modification which a) can be described at least approximately at least locally in the generating pattern in a first direction of the tool by a linear or quadratic function; wherein the coefficients of this linear and/or quadratic function are formed in a second direction of the tool which extends perpendicular to the first direction by coefficient functions F FtC,1 for the constant function, F FtL,1 for the linear function and/or F FtQ,1 for the quadratic function and/or b) is a modification whose pitch and/or crowning varies in dependence on the tool width position in a first direction of the tool that includes an angle ρ F1 not equal to zero with respect to the tool width direction, and wherein the specific modification of the tool by the diagonal generating method produces a corresponding modification on the surface of the workpiece, wherein the modification of the workpiece produced by the specific modification of the tool is superposed by a profile modification and/or a modification caused by a change of the machine kinematics during the machining process of the workpiece.
A communication system comprising a base station and a communication terminal device that performs radio communication with the base station, wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device, the resource for uplink being allocated to uplink communication from the communication terminal device, wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device, and wherein the communication terminal device performs carrier aggregation with the PCell and the SCell, and the base station is configured to notify the communication terminal device of the Physical Cell Identity of the SCell using the PCell. communication terminal device that performs radio communication with the base station, wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device, the resource for uplink being allocated to uplink communication from the communication terminal device, wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device, and wherein the communication terminal device performs carrier aggregation with the PCell and the SCell, and the base station is configured to notify the communication terminal device of the Physical Cell Identity of the SCell using the PCell.
A bottle cleaning machine for cleaning bottles in the beverage processing industry, comprising a first transport device for transporting standing bottles in a random mass flow to an inlet area of the bottle cleaning machine, wherein in the inlet area the bottles are transferred from the first transport device to a second transport device which can transport the bottles from the inlet area through the bottle cleaning machine, wherein a detection device for detecting a jammed or damaged bottle in the inlet area is arranged in the inlet area or in front of it, and a robot arm is provided in the inlet area, which can be operated by an operator in order to manipulate a jammed or damaged bottle, wherein an operating member is provided which is configured for operating the robot arm by the operator, characterized in that the operating member is designed as a smart glove or comprises the same.
An opening/closing body inspection apparatus for evaluating the closing performance of an opening/closing body open-and-closably attached to an opening/closing body support member, the apparatus being characterized in comprising: a marker attached to the opening/closing body; a load-detecting means for detecting a load upon the opening/closing body to which the marker is attached; an image-capturing means for capturing an image of a movement path of the marker as the marker moves in tandem with the motion of the opening/closing body being closed by the load; an image-processing means for analyzing image data obtained by the image-capturing means capturing the image of the movement path of the marker, and calculating a movement distance of the opening/closing body; and a performance-assessing means for assessing the closing performance of the opening/closing body on the basis of the movement distance calculated by the image-processing means and the load detected by the load-detecting means. a marker attached to the opening/closing body; a load-detecting means for detecting a load upon the opening/closing body to which the marker is attached; an image-capturing means for capturing an image of a movement path of the marker as the marker moves in tandem with the motion of the opening/closing body being closed by the load; an image-processing means for analyzing image data obtained by the image-capturing means capturing the image of the movement path of the marker, and calculating a movement distance of the opening/closing body; and a performance-assessing means for assessing the closing performance of the opening/closing body on the basis of the movement distance calculated by the image-processing means and the load detected by the load-detecting means.
A mixture containing at least one first component A and at least one second component B, characterized in that said at least one first component A comprises a methyl methacrylate, a copolymer of methyl methacrylate dissolved in excess methyl methacrylate, comprising, additionally dissolved therein, at least one polyfunctional (meth)acrylate, and a peroxide-based free-radical initiator, wherein said copolymer of methyl methacrylate is present in an amount of 30-50 parts by weight dissolved in a solution of 65-85 parts by weight of monomeric methyl methacrylate and 3-15 parts by weight of the polyfunctional (meth)acrylate, mixed with a solution of 0.5 to 3 parts by weight of said peroxide-based free-radical initiator, especially dibenzoyl peroxide, in 70-90 parts by weight of monomeric methyl methacrylate, and said at least one second component B comprises methyl methacrylate and a tertiary amine.
Vehicle door handle assembly comprising: - a housing that sits flush against an outer panel of the vehicle, - a rotatable flap housed within said housing, said flap extending along and configured to rotate about a rotation axis (X-X) between a rest position and a door opening position, - a mechanical actuation switch generating an electrical signal to be sent to a vehicle door controller to release the vehicle door, wherein it also comprises a cam holder and a cam supported by the cam holder, said cam holder being connected to the flap such that the cam holder is rotatable about the rotation axis (X-X) and that rotation of the flap causes rotation of the cam holder, rotation of the cam holder causing the cam to activate said mechanical actuation switch. wherein the cam holder comprises a cam lever extending along a longitudinal direction, said lever comprising a first end hinged on the rotation axis (X-X) of the flap and a second end, opposite to the first, supporting the cam, wherein the rotatable flap is sensibly planar and is delimited, on the one hand, by two parallel rectilinear longitudinal sides extending along the rotation axis (X-X) and, on the hand, by two parallel rectilinear lateral sides extending along a direction that is sensibly perpendicular to the rotation axis (X-X), wherein the axis about which the cam holder is rotatable is a pin stemming from the first end of the cam lever configured to be inserted into a hole opened in the flap along the rotation axis (X-X), such that the cam lever is substantially parallel to a lateral side of the flap. - a housing that sits flush against an outer panel of the vehicle, - a rotatable flap housed within said housing, said flap extending along and configured to rotate about a rotation axis (X-X) between a rest position and a door opening position, - a mechanical actuation switch generating an electrical signal to be sent to a vehicle door controller to release the vehicle door, wherein it also comprises a cam holder and a cam supported by the cam holder, said cam holder being connected to the flap such that the cam holder is rotatable about the rotation axis (X-X) and that rotation of the flap causes rotation of the cam holder, rotation of the cam holder causing the cam to activate said mechanical actuation switch. wherein the cam holder comprises a cam lever extending along a longitudinal direction, said lever comprising a first end hinged on the rotation axis (X-X) of the flap and a second end, opposite to the first, supporting the cam, wherein the rotatable flap is sensibly planar and is delimited, on the one hand, by two parallel rectilinear longitudinal sides extending along the rotation axis (X-X) and, on the hand, by two parallel rectilinear lateral sides extending along a direction that is sensibly perpendicular to the rotation axis (X-X), wherein the axis about which the cam holder is rotatable is a pin stemming from the first end of the cam lever configured to be inserted into a hole opened in the flap along the rotation axis (X-X), such that the cam lever is substantially parallel to a lateral side of the flap.
Radiation detecting apparatus (10, 110, 210, 310, 410, 510, 610, 710, 810, 994, 996) comprising a collimator (14, 114, 214, 314, 414, 514, 614, 814) and a detector, the collimator (14, 114, 214, 314, 414, 514, 614, 814) comprising: a central blocking region (22, 122, 822) comprising a material for blocking radiation; and a surrounding transmission region (24, 123, 824) for allowing transmission of the radiation, wherein the surrounding transmission region (24, 123, 824) is a sector of an annulus or a plurality of areas in a configuration in the shape of a sector of an annulus, characterized in that the apparatus (10, 110, 210, 310, 410, 510, 610, 710, 810, 994, 996) is configured such that a single radiation source (12, 112, 212, 312, 412, 512, 612, 712, 812) can be positioned on the other side of the collimator (14, 114, 214, 314, 414, 514, 614, 814) to the detector and aligned with the centre of the central blocking region (22, 122) or configuration of regions of the collimator (14, 114, 214, 314, 414, 514, 614, 814), the single radiation source (12, 112, 212, 312, 412, 512, 612, 712, 812)and a sensing element of the detector, so that when a sample (16, 116, 216, 316, 426, 516, 616, 716, 916) comprising a crystal material is at a detecting position the radiation from the aligned single radiation source (12, 112, 212, 312, 412, 512, 612, 712, 812) is collimated and contacts the sample at a plurality of different locations via the surrounding transmission region, the apparatus (10, 110, 210, 310, 410, 510, 610, 710, 810, 994, 996) further comprising means for positioning the detector a particular distance from the collimator (14, 114, 214, 314, 414, 514, 614, 814) at which position Bragg radiation diffracted from the crystal material at two or more of the plurality of different locations overlaps at the aligned sensing element of the detector, whilst any primary radiation is collimated away from the aligned sensing element. a central blocking region (22, 122, 822) comprising a material for blocking radiation; and a surrounding transmission region (24, 123, 824) for allowing transmission of the radiation, wherein the surrounding transmission region (24, 123, 824) is a sector of an annulus or a plurality of areas in a configuration in the shape of a sector of an annulus,
Locking mechanism for a switch-on button of a circuit breaker, which locking mechanism has a locking element rotatably mounted on the switch-on button, which locking element, held directly in a first position by a first spring, allows the switch-on button to be actuated and, in the ON state of the circuit breaker, can be placed directly in a second position by a second spring, wherein, in the second position, the switch-on button of the circuit breaker is locked against actuation, characterised in that the second spring engages with the locking element and a switch shaft lever of the circuit breaker.
Whey protein product having a ratio of whey protein to casein in the range from 80:20 to 50:50, a total protein content of 40% to 60% on dry matter basis and a protein content of 2.5 to 8% by weight based on the weight of the product, wherein the product is a beverage and wherein the product is produced by a method comprising - subjecting a milk-based raw material to microfiltration to separate an ideal whey as a microfiltration permeate and a casein concentrate as a microfiltration retentate, - subjecting at least a portion of the microfiltration permeate to ultrafiltration to provide an ultrafiltration permeate and a whey protein concentrate as an ultrafiltration retentate, - composing a whey protein product from the ultrafiltration retentate and a casein-containing material so as to provide said whey protein product. - subjecting a milk-based raw material to microfiltration to separate an ideal whey as a microfiltration permeate and a casein concentrate as a microfiltration retentate, - subjecting at least a portion of the microfiltration permeate to ultrafiltration to provide an ultrafiltration permeate and a whey protein concentrate as an ultrafiltration retentate, - composing a whey protein product from the ultrafiltration retentate and a casein-containing material so as to provide said whey protein product.
An apparatus for freezing a skin tissue to produce hypopigmentation effects in the skin tissue, comprising: a base arrangement; a plurality of protrusions (110, 410, 710, 810) provided in thermal communication with the base arrangement at a proximal end of the protrusions; a cooling arrangement in thermal communication with the plurality of protrusions (110, 410, 710, 810), the cooling arrangement configured to cool the plurality of protrusions; one or more thermal sensors provided on, near, or proximal a distal end of at least one of the protrusions; and a thermal control arrangement that, in combination with the one or more thermal sensors, provides feedback control of the cooling arrangement so that the temperature of the one or more protrusions is controlled in a range from less than -5 degrees Celsius to not less than -20 degrees Celsius to freeze the skin tissue to produce hypopigmentation effects in the skin tissue, wherein a width of the distal end of the protrusions (110, 410, 710, 810) is between 2 mm and 20 mm, wherein the distal end of the protrusions (110, 410, 710, 810) is at least one of substantially flat or slightly convex, and wherein the protrusions (110, 410, 710, 810) are (i) closer together near a center of the base arrangement and further apart near an outer perimeter of the base arrangement, or (ii) have smaller widths near the outer perimeter of the base arrangement than the center of the base arrangement. a base arrangement; a plurality of protrusions (110, 410, 710, 810) provided in thermal communication with the base arrangement at a proximal end of the protrusions; a cooling arrangement in thermal communication with the plurality of protrusions (110, 410, 710, 810), the cooling arrangement configured to cool the plurality of protrusions; one or more thermal sensors provided on, near, or proximal a distal end of at least one of the protrusions; and a thermal control arrangement that, in combination with the one or more thermal sensors, provides feedback control of the cooling arrangement so that the temperature of the one or more protrusions is controlled in a range from less than -5 degrees Celsius to not less than -20 degrees Celsius to freeze the skin tissue to produce hypopigmentation effects in the skin tissue, wherein a width of the distal end of the protrusions (110, 410, 710, 810) is between 2 mm and 20 mm, wherein the distal end of the protrusions (110, 410, 710, 810) is at least one of substantially flat or slightly convex, and wherein the protrusions (110, 410, 710, 810) are (i) closer together near a center of the base arrangement and further apart near an outer perimeter of the base arrangement, or (ii) have smaller widths near the outer perimeter of the base arrangement than the center of the base arrangement.
A receiver comprising: a receive chain configured to receive a multi-carrier signal; a controller configured to: determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate. a receive chain configured to receive a multi-carrier signal; a controller configured to: determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate. determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate.