mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a quality indicator of an object that has been manufactured by means of a layer-wise additive manufacturing method, wherein in said layer-wise additive manufacturing method the object is manufactured layer by layer by a solidification of a building material at the positions corresponding to the cross-section of the object in a layer, wherein the method comprises at least the following steps: a step (S1) of providing a first dataset that is assigned to a process monitoring device, wherein in the first dataset for several layers following upon one another during the course of the manufacture, in particular layers following immediately upon one another, a process irregularity information detected by the process monitoring device assigned to the dataset is assigned to each of a pre-defined number of solidified positions of a layer, a step (S2) of detecting for said several layers following upon one another a relative frequency of occurrence of a process irregularity in a layer and of assigning a grade indicator value (R i , S i ) to the solidified object cross-section in a layer according to the detected relative frequency, wherein to different ranges of values of the relative frequency different grade indicator values (R i , S i ) indicating different quality levels are assigned and a step (S3) of generating a second dataset , in which based on the assignments of the grade indicator values (R i , S i ) to the individual layers in step S2 a grade indicator value is assigned to the object cross-section in each individual layer of said several layers following upon one another, and a step (S4) of determining a quality indicator (Q) by using the second dataset , said quality indicator (Q) indicating the quality of the manufactured object. a step (S1) of providing a first dataset that is assigned to a process monitoring device, wherein in the first dataset for several layers following upon one another during the course of the manufacture, in particular layers following immediately upon one another, a process irregularity information detected by the process monitoring device assigned to the dataset is assigned to each of a pre-defined number of solidified positions of a layer, a step (S2) of detecting for said several layers following upon one another a relative frequency of occurrence of a process irregularity in a layer and of assigning a grade indicator value (R i , S i ) to the solidified object cross-section in a layer according to the detected relative frequency, wherein to different ranges of values of the relative frequency different grade indicator values (R i , S i ) indicating different quality levels are assigned and a step (S3) of generating a second dataset , in which based on the assignments of the grade indicator values (R i , S i ) to the individual layers in step S2 a grade indicator value is assigned to the object cross-section in each individual layer of said several layers following upon one another, and a step (S4) of determining a quality indicator (Q) by using the second dataset , said quality indicator (Q) indicating the quality of the manufactured object.
A water circulation pipeline , comprising: an interface pipeline , comprising a first pipeline and a second pipeline , one of the first pipeline and the second pipeline being provided with a water inlet , the other one of the first pipeline and the second pipeline being provided with a water outlet , the water inlet and the water outlet being adapted to be used for connecting with a water pool body respectively; and a pipeline body , being provided with a third pipeline , wherein a first port of the third pipeline communicates with the first pipeline, and a second port of the third pipeline communicates with the second pipeline, characterized in that the second pipeline being nested in the first pipeline . an interface pipeline , comprising a first pipeline and a second pipeline , one of the first pipeline and the second pipeline being provided with a water inlet , the other one of the first pipeline and the second pipeline being provided with a water outlet , the water inlet and the water outlet being adapted to be used for connecting with a water pool body respectively; and a pipeline body , being provided with a third pipeline , wherein a first port of the third pipeline communicates with the first pipeline, and a second port of the third pipeline communicates with the second pipeline, characterized in that the second pipeline being nested in the first pipeline .
A method performed by a user equipment for handling a scheduling request, the user equipment comprising a buffer , the method comprising: receiving data into the buffer , wherein said data is to be transmitted to a base station ; and triggering a scheduling request, said scheduling request being pending until it is cancelled; characterized in that the method further comprising: cancelling the pending scheduling request when the data that triggered the scheduling request is accounted for in a buffer status report to be included in a scheduled data transmission to be transmitted to the base station. receiving data into the buffer , wherein said data is to be transmitted to a base station ; and triggering a scheduling request, said scheduling request being pending until it is cancelled;
Carrier for receiving at least one surgical object, in particular an implant, in particular a screw : - a holder with at least one receptacle for the at least one surgical object, - a securing element for the at least one object, whereby - the securing element has at least one recess for removing the at least one object through the recess , - the securing element is movably connected to the holder , so that the securing element can be moved from a first position (P1) to a second position (P2), - in the first position (P1) of the securing element relative to the holder , the at least one object is secured, and - in the second position (P2) of the securing element relative to the holder , the at least one object can be removed from the receptacle through the recess of the securing element along a removal direction . - a holder with at least one receptacle for the at least one surgical object, - a securing element for the at least one object, whereby - the securing element has at least one recess for removing the at least one object through the recess , - the securing element is movably connected to the holder , so that the securing element can be moved from a first position (P1) to a second position (P2), - in the first position (P1) of the securing element relative to the holder , the at least one object is secured, and - in the second position (P2) of the securing element relative to the holder , the at least one object can be removed from the receptacle through the recess of the securing element along a removal direction .
A milk meter for measuring a flow rate of a milk flow, provided with an inlet to which, in use, the milk flow is supplied, an outlet where the milk flow leaves the milk meter, in use, and a liquid flow path extending from the inlet to the outlet, wherein in the liquid flow path a valve is included which can selectively take up a first or second valve position, wherein in the first valve position at least a first part (5.1) of the liquid path is open and in the second valve position at least the first part of the liquid path is closed, wherein the valve is provided with an operating opening , characterized in that the milk meter is configured such that: - if at the operating opening a first pressure prevails and upstream of the valve in the liquid flow path a second pressure prevails, with the first pressure being higher than the second pressure and the difference between the first and the second pressure being greater than a first predetermined value, the valve takes up the first valve position; - if at the operating opening a third pressure prevails and upstream of the valve in the liquid flow path a fourth pressure prevails, with the difference between the third pressure and the fourth pressure being less than a predetermined second value, and the third pressure and the fourth pressure each being less than the first pressure, the valve is in the second valve position; and - if at the operating opening a fifth pressure prevails and upstream of the valve in the liquid flow path a sixth pressure prevails, with the difference between the fifth pressure and the sixth pressure being less than a predetermined third value, and the fifth pressure and the sixth pressure each being greater than the second pressure, the valve is in the second valve position. - if at the operating opening a first pressure prevails and upstream of the valve in the liquid flow path a second pressure prevails, with the first pressure being higher than the second pressure and the difference between the first and the second pressure being greater than a first predetermined value, the valve takes up the first valve position; - if at the operating opening a third pressure prevails and upstream of the valve in the liquid flow path a fourth pressure prevails, with the difference between the third pressure and the fourth pressure being less than a predetermined second value, and the third pressure and the fourth pressure each being less than the first pressure, the valve is in the second valve position; and - if at the operating opening a fifth pressure prevails and upstream of the valve in the liquid flow path a sixth pressure prevails, with the difference between the fifth pressure and the sixth pressure being less than a predetermined third value, and the fifth pressure and the sixth pressure each being greater than the second pressure, the valve is in the second valve position.
Lighting module for illumination and/or signalling in a motor vehicle, comprising a base supporting at a first face at least one light source that emits light rays, most of which extend along an optical axis perpendicular or substantially perpendicular to the first face , and a primary optical device comprising a receiving portion opposite at least one portion of the light source and lightened by the light source and an output face opposite the receiving portion , the lighting module having at least one arm projecting from the first face of the base and holding the primary optical device at a retaining zone positioned between the receiving portion and the output face of the primary optical device , said arm may be arranged to face a lateral face of the primary optical device , characterized in that the primary optical device has two struts extending a side face on both sides of the receiving portion respectively, each strut having a foot provided with a pin designed to cooperate with an orifice formed in the base , thus ensuring the positioning of the receiving portion of the primary optical device relative to the light source .
A Large Area, Uniform, Atmospheric Pressure Plasma Processing device comprising a first dielectric material (3.1) metalized on one side by a first powered metal (2.1), having on the other side a second patterned metallic layer in the form of an antenna, the antenna being powered or floating and being covered conformally by a second dielectric (3.2), the whole electrode / dielectric construction being perforated with holes and separated by an air gap from a third grounded metal (2.2) electrode of the device facing the second dielectric optionally covered with a third dielectric (3.3), whereby a sample to be processed by the device is sitting on the third grounded metal (2.2) electrode.
A tool-changing device for a press brake , the tool-changing device comprising: a tool carrier comprising a receiving recess for receiving bending tools , wherein the bending tools are displaceable between the tool carrier and a tool holder formed in a press beam of the press brake ; a manipulation apparatus for manipulating the tool carrier between a tool-changing position in which the tool carrier is arranged next to the tool holder to allow for displacement of the bending tools from the tool carrier into the tool holder , and a tooling position in which the tool carrier is arranged in the region of a tool storage for loading bending tools , characterized in that the manipulation apparatus comprises a first manipulation arm and a second manipulation arm , wherein a first coupling device for receiving a first tool carrier is formed on the first manipulation arm and a second coupling device for receiving a second tool carrier is formed on the second manipulation arm . a tool carrier comprising a receiving recess for receiving bending tools , wherein the bending tools are displaceable between the tool carrier and a tool holder formed in a press beam of the press brake ; a manipulation apparatus for manipulating the tool carrier between a tool-changing position in which the tool carrier is arranged next to the tool holder to allow for displacement of the bending tools from the tool carrier into the tool holder , and a tooling position in which the tool carrier is arranged in the region of a tool storage for loading bending tools , characterized in that the manipulation apparatus comprises a first manipulation arm and a second manipulation arm , wherein a first coupling device for receiving a first tool carrier is formed on the first manipulation arm and a second coupling device for receiving a second tool carrier is formed on the second manipulation arm .
A time-of-flight image sensor including a readout circuit , the readout circuit comprising: a pixel array including multiple pixels and configured to produce a pixel signal for each of one or more pixels over a series of timesteps, the pixel signal including an illuminated value at an illuminated timestep and a reset value at a reset timestep; a plurality of gain selection comparators configured to receive the pixel signal and select an amplifier gain value from a plurality of predefined amplifier gain values based upon a difference between the illuminated value and the reset value; analog correlated double sampling circuitry configured to perform analog correlated double sampling on the pixel signal; a programmable gain amplifier configured to generate an amplified pixel signal from the pixel signal, wherein the pixel signal is amplified at the selected amplifier gain value; and a plurality of analog-to-digital converters configured to convert the amplified pixel signal to a digital pixel signal, wherein each of the plurality of the analog-to-digital converters has a common ramp generated by a global ramp generator . a pixel array including multiple pixels and configured to produce a pixel signal for each of one or more pixels over a series of timesteps, the pixel signal including an illuminated value at an illuminated timestep and a reset value at a reset timestep; a plurality of gain selection comparators configured to receive the pixel signal and select an amplifier gain value from a plurality of predefined amplifier gain values based upon a difference between the illuminated value and the reset value; analog correlated double sampling circuitry configured to perform analog correlated double sampling on the pixel signal; a programmable gain amplifier configured to generate an amplified pixel signal from the pixel signal, wherein the pixel signal is amplified at the selected amplifier gain value; and a plurality of analog-to-digital converters configured to convert the amplified pixel signal to a digital pixel signal, wherein each of the plurality of the analog-to-digital converters has a common ramp generated by a global ramp generator .
A heated laminated window comprising first and second panes of glass(15 and 16), a laminating interlayer interposed between the two panes of glass (15 and 16) and bonded thereto to form a laminated window, an electrical window heater interposed between the first pane of glass and the laminating interlayer and a thin, flat electrical conductor for connecting the electrical window heater to a source of electrical power characterised in that the thin, flat electrical conductor (11, 20b; 111, 120b; 211, 220b) extends through an angled slit in the laminating interlayer and is folded over at an angle corresponding to the angular relationship of the slit to the thin, flat electrical conductor as it passes through the slit so as to have first and second portions (11a, 11b and 11c; 21 and 22) lying on opposite sides of the laminating interlayer arranged at a turn angle (θ, θ1) with respect to one another.
A heat pump system : including indoor units (30A to 30C, 40) conducting heat exchange between indoor air and a refrigerant, and an outdoor unit conducting heat exchange between outdoor air and the refrigerant, wherein the heat pump system further comprises: a first circulating system circulating the refrigerant between the indoor units (30A to 30C, 40) and the outdoor unit ; adjustment means provided to each of the indoor units (30A to 30C, 40) for adjusting the flow rate of the refrigerant entering the indoor unit (30A to 30C, 40) from the first circulating system ; input means for entering priorities set for the indoor units (30A to 30C, 40); and control means , characterized by the control means being configured to acquire priorities set in the indoor units (30A to 30C, 40), to control the adjustment means , and to distribute the refrigerant so as to supply the indoor units (30A to 30C, 40) with the refrigerant at the flow rates the indoor units (30A to 30C, 40) need in an order of the indoor units (30A to 30C, 40) from the highest set priority of the acquired priorities when the total of the refrigerant flow rates necessary at the indoor units (30A to 30C, 40), that are obtained from target temperatures of the indoor air of the indoor units (30A 30C, 40) and the current temperatures of the indoor air, surpasses the refrigerant flow rate that can be discharged into the first circulating system from the outdoor unit . a first circulating system circulating the refrigerant between the indoor units (30A to 30C, 40) and the outdoor unit ; adjustment means provided to each of the indoor units (30A to 30C, 40) for adjusting the flow rate of the refrigerant entering the indoor unit (30A to 30C, 40) from the first circulating system ; input means for entering priorities set for the indoor units (30A to 30C, 40); and control means , characterized by the control means being configured to acquire priorities set in the indoor units (30A to 30C, 40), to control the adjustment means , and to distribute the refrigerant so as to supply the indoor units (30A to 30C, 40) with the refrigerant at the flow rates the indoor units (30A to 30C, 40) need in an order of the indoor units (30A to 30C, 40) from the highest set priority of the acquired priorities when the total of the refrigerant flow rates necessary at the indoor units (30A to 30C, 40), that are obtained from target temperatures of the indoor air of the indoor units (30A 30C, 40) and the current temperatures of the indoor air, surpasses the refrigerant flow rate that can be discharged into the first circulating system from the outdoor unit .
Method for processing and/or packaging a food product and/or medical product and/or pharmacological product and/or other hygiene-sensitive product with a processing, handling and/or packaging machine, characterized in that a deposit of bacteria and the metabolic products thereof and of biochemical reaction products on the processing, handling and/or packaging machine and/or the protective clothing of a worker is excited with a UV radiation, the fluorescent reflection from the deposit is measured and the measurement results achieved are stored together with a packaging identification in a storage medium that is located on a packaging and/or in a database.
An in vitro method for determining whether an anti-cancer effect is likely to be produced in a cancer by a CDK4 inhibitor, comprising determining whether cells of the cancer have reduced expression of MDM2 following treatment with the CDK4 inhibitor, wherein if MDM2 expression is reduced, the CDK4 inhibitor is more likely to have an anti-cancer effect on the cancer, wherein the cancer is selected from the group consisting of liposarcoma, glioma, and breast cancer, and the CDK4 inhibitor selected from the group consisting of an ATP-competitive inhibitor of CDK4, a CDK4 inhibitor derived from pyridopyrimidine, pyrrolopyrimidine or indolocarbazole compounds, Palbociclib Isethionate, LEE011, LY2835219, PD0332991, Flavopiridol Hydrochloride, an antisense oligonucleotide, a shRNA molecule or siRNA molecule that inhibits the expression or activity of CDK4.
A light system for use in a rearview mirror assembly, comprising: light sources; a first optical element having: an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic ; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic ; and light steering areas configured to steer light propagating in the first optical element , wherein light steered from each of the light steering areas exits the first optical element via an output surface located adjacent to the collection optic , wherein the light steering areas are parallel with each other and each of the light steering areas is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic ; and a second optical element in optical communication with the first optical element . light sources; a first optical element having: an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic ; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic ; and light steering areas configured to steer light propagating in the first optical element , wherein light steered from each of the light steering areas exits the first optical element via an output surface located adjacent to the collection optic , wherein the light steering areas are parallel with each other and each of the light steering areas is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic ; and an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic ; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic ; and light steering areas configured to steer light propagating in the first optical element , wherein light steered from each of the light steering areas exits the first optical element via an output surface located adjacent to the collection optic , wherein the light steering areas are parallel with each other and each of the light steering areas is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic ; and a second optical element in optical communication with the first optical element .