mhurhangee/patent-ind-claim-en huggingface dataset:
An end effector which can be mounted on a robot arm of an industrial robot , comprising: an end effector base portion which can be connected to the robot arm ; a first object holding mechanism provided to the end effector base portion and configured to hold a first type of object (O1) to be handled; a second object holding unit configured to hold a second type of object (O2) to be handled; and a unit holding mechanism provided to the end effector base portion and configured to releasably hold the second object holding unit , wherein the second object holding unit which is held by the unit holding mechanism is driven by the first object holding mechanism , wherein the first object holding mechanism has a first gripping member configured to grip the first type of object (O1) to be handled, wherein the second object holding unit which is held by the unit holding mechanism is driven by the first gripping member , wherein the second object holding unit has a second gripping member configured to grip the second type of object (O2) to be handled, wherein the second gripping member of the second object holding unit which is held by the unit holding mechanism is driven by the first gripping member , characterized in that the second object holding unit has an energizing unit configured to energize the second gripping member in a direction such that the second type of object (O2) to be handled is gripped, and the second gripping member is driven in a direction such that the second type of object (O2) to be handled is released by the first gripping member against an energizing force of the energizing unit . an end effector base portion which can be connected to the robot arm ; a first object holding mechanism provided to the end effector base portion and configured to hold a first type of object (O1) to be handled; a second object holding unit configured to hold a second type of object (O2) to be handled; and a unit holding mechanism provided to the end effector base portion and configured to releasably hold the second object holding unit , wherein the second object holding unit which is held by the unit holding mechanism is driven by the first object holding mechanism , wherein the first object holding mechanism has a first gripping member configured to grip the first type of object (O1) to be handled, wherein the second object holding unit which is held by the unit holding mechanism is driven by the first gripping member , wherein the second object holding unit has a second gripping member configured to grip the second type of object (O2) to be handled, wherein the second gripping member of the second object holding unit which is held by the unit holding mechanism is driven by the first gripping member , characterized in that the second object holding unit has an energizing unit configured to energize the second gripping member in a direction such that the second type of object (O2) to be handled is gripped, and the second gripping member is driven in a direction such that the second type of object (O2) to be handled is released by the first gripping member against an energizing force of the energizing unit .
An array substrate, comprising: a substrate base ; and a thin film transistor unit and a color filter on the substrate base , wherein the color filter is conductive and electrically connected with a drain electrode of the thin film transistor unit , wherein the array substrate further comprises: a first insulation layer between the color filter and the thin film transistor unit , wherein a first via hole is formed in a region of the first insulation layer corresponding to the drain electrode of the thin film transistor unit , and wherein the color filter is electrically connected with the drain electrode through the first via hole , wherein the color filter is separated electrically into a plurality of parts corresponding to pixel units respectively, and wherein the plurality of parts of the color filter corresponding to pixel units respectively are insulated electrically from one another by the first insulation layer , and wherein the color filter is located between the thin film transistor unit and the substrate base . a substrate base ; and a thin film transistor unit and a color filter on the substrate base , wherein the color filter is conductive and electrically connected with a drain electrode of the thin film transistor unit , wherein the array substrate further comprises: a first insulation layer between the color filter and the thin film transistor unit , wherein a first via hole is formed in a region of the first insulation layer corresponding to the drain electrode of the thin film transistor unit , and wherein the color filter is electrically connected with the drain electrode through the first via hole , wherein the color filter is separated electrically into a plurality of parts corresponding to pixel units respectively, and wherein the plurality of parts of the color filter corresponding to pixel units respectively are insulated electrically from one another by the first insulation layer , and a first insulation layer between the color filter and the thin film transistor unit , wherein a first via hole is formed in a region of the first insulation layer corresponding to the drain electrode of the thin film transistor unit , and wherein the color filter is electrically connected with the drain electrode through the first via hole , wherein the color filter is separated electrically into a plurality of parts corresponding to pixel units respectively, and wherein the plurality of parts of the color filter corresponding to pixel units respectively are insulated electrically from one another by the first insulation layer , and wherein the color filter is located between the thin film transistor unit and the substrate base .
Arrangement for separating substrates, which arrangement has: a support surface which is designed to receive a substrate card having a first surface and a second surface, which is situated opposite the first surface, in such a way that the substrate card , by way of its second surface, rests at least partially on the support surface ; a first holding apparatus which is designed to hold a substrate card , which is arranged on the support surface , on the support surface during a first breaking process, wherein the first holding apparatus is further designed to exert a first holding force (F11) onto a first holding region (H1) of the substrate card during the first breaking process; a first breaking apparatus which is designed to exert a first breaking force (F21) onto a first breaking region (B1) of the substrate card during the first breaking process in order to partially separate the substrate card ; a second holding apparatus which is designed to hold the substrate card , which was at least partially separated after the first breaking process, on the support surface during a second breaking process, wherein the second holding apparatus is further designed to exert a second holding force onto a second holding region (H2) of the substrate card during the second breaking process; and a second breaking apparatus which is designed to exert a second breaking force onto a second breaking region (B2) of the substrate card during the second breaking process in order to further separate the substrate card. a support surface which is designed to receive a substrate card having a first surface and a second surface, which is situated opposite the first surface, in such a way that the substrate card , by way of its second surface, rests at least partially on the support surface ; a first holding apparatus which is designed to hold a substrate card , which is arranged on the support surface , on the support surface during a first breaking process, wherein the first holding apparatus is further designed to exert a first holding force (F11) onto a first holding region (H1) of the substrate card during the first breaking process; a first breaking apparatus which is designed to exert a first breaking force (F21) onto a first breaking region (B1) of the substrate card during the first breaking process in order to partially separate the substrate card ; a second holding apparatus which is designed to hold the substrate card , which was at least partially separated after the first breaking process, on the support surface during a second breaking process, wherein the second holding apparatus is further designed to exert a second holding force onto a second holding region (H2) of the substrate card during the second breaking process; and a second breaking apparatus which is designed to exert a second breaking force onto a second breaking region (B2) of the substrate card during the second breaking process in order to further separate the substrate card.
Method for calculating a four-dimensional DSA dataset from x-ray datasets , comprising the following method steps: - Receiving (REC) x-ray datasets relating to an examination volume by means of an interface , wherein each of the x-ray datasets comprises a two-dimensional x-ray projection (501.1, 501.2, 501.3, 501.4) of the examination volume in relation to a direction of projection and a recording time of the x-ray projection (501.1, 501.2, 501.3, 501.4), - First determination (DET-1) of a first three-dimensional DSA dataset of a first reconstruction volume on the basis of the x-ray datasets by means of a calculation unit , wherein the first reconstruction volume is a part of the examination volume or is identical to said volume, - Second determination (DET-2) of a second three-dimensional DSA dataset of a second reconstruction volume on the basis of the x-ray datasets by means of the calculation unit , wherein the second reconstruction volume is a part of the first reconstruction volume , - Segmentation (SEG) of the second three-dimensional DSA dataset by means of the calculation unit , - Normalization (NORM) of the x-ray datasets on the basis of the first three-dimensional DSA dataset by means of the calculation unit , - Calculation (CALC) of a four-dimensional DSA dataset by back projection of the normalized x-ray datasets onto the segmented second three-dimensional DSA dataset by means of the calculation unit , wherein the four-dimensional DSA dataset comprises a number of third three-dimensional DSA datasets as well as an associated item of time information. - Receiving (REC) x-ray datasets relating to an examination volume by means of an interface , wherein each of the x-ray datasets comprises a two-dimensional x-ray projection (501.1, 501.2, 501.3, 501.4) of the examination volume in relation to a direction of projection and a recording time of the x-ray projection (501.1, 501.2, 501.3, 501.4), - First determination (DET-1) of a first three-dimensional DSA dataset of a first reconstruction volume on the basis of the x-ray datasets by means of a calculation unit , wherein the first reconstruction volume is a part of the examination volume or is identical to said volume, - Second determination (DET-2) of a second three-dimensional DSA dataset of a second reconstruction volume on the basis of the x-ray datasets by means of the calculation unit , wherein the second reconstruction volume is a part of the first reconstruction volume , - Segmentation (SEG) of the second three-dimensional DSA dataset by means of the calculation unit , - Normalization (NORM) of the x-ray datasets on the basis of the first three-dimensional DSA dataset by means of the calculation unit , - Calculation (CALC) of a four-dimensional DSA dataset by back projection of the normalized x-ray datasets onto the segmented second three-dimensional DSA dataset by means of the calculation unit , wherein the four-dimensional DSA dataset comprises a number of third three-dimensional DSA datasets as well as an associated item of time information.
Method for transporting and examining separated, fast-moving cylindrical hollow bodies closed on one side, of packaging components and packaging preforms, namely lids, with at least one lateral surface and at least one top surface, for optical and mechanical flawlessness, in which method bodies , transported to an examining unit , are accepted by the same into a conveying path of a transport device , the transport device is designed at least partially as an upper guide, which, in a final step, contacts the bodies at a peripheral edge, thus radially far outward, and then guides the bodies smoothly and free of pendulum movements or inclined positions by means of a frictional, parallel belt transport with the bottom and/or top exposed to at least one inspection camera connected to a control unit , wherein the conveying path is defined by two driven and pretensioned belts , each circulating a drive wheel and another wheel , the control unit determines the defectiveness of each body by means of the image data originating from the inspection camera and the examining unit transfers the bodies to a rejection unit , wherein either the examining unit or the rejection unit ejects the bodies in an approximately free flight, and wherein the rejection unit alters the flight paths of the bodies detected to be defective and of the bodies detected to be flawless relative to each other by means of a contactless exertion of force, wherein the bodies located in free flight are subjected to a lateral examination by inspection cameras viewing their sides prior to the rejection, wherein all inspection cameras are connected to the control and evaluation unit.
A method comprising: receiving, by a provider edge device of a layer 3, L3, network, configuration data for a layer 2, L2, virtual private network, L2VPN, for the L3 network for switching L2 packet data units, PDUs, among two or more L2 networks connected to the L3 network, wherein the configuration data configures the provider edge device as a neighbor having a redundant attachment circuit , for the L2VPN, with a customer edge device of a local L2 network of the two or more L2 networks, said redundant attachment circuit being a backup connection between multi-homing provider edge devices and the customer edge device ; receiving, by the provider edge device from the customer edge device via the redundant attachment circuit , when the provider edge device is a backup neighbor for the customer edge device , a control plane message destined for the provider edge device , the control plane message indicating a multicast group; receiving, by the provider edge device , an indication that the provider edge device is a primary neighbor of the customer edge device , and forwarding, by the provider edge device to the customer edge device via the redundant attachment circuit for the L2VPN and based at least on the control plane message, in response to the indication that the provider edge device is the primary neighbor of the customer edge device , multicast traffic for the multicast group received from the L3 network. receiving, by a provider edge device of a layer 3, L3, network, configuration data for a layer 2, L2, virtual private network, L2VPN, for the L3 network for switching L2 packet data units, PDUs, among two or more L2 networks connected to the L3 network, wherein the configuration data configures the provider edge device as a neighbor having a redundant attachment circuit , for the L2VPN, with a customer edge device of a local L2 network of the two or more L2 networks, said redundant attachment circuit being a backup connection between multi-homing provider edge devices and the customer edge device ; receiving, by the provider edge device from the customer edge device via the redundant attachment circuit , when the provider edge device is a backup neighbor for the customer edge device , a control plane message destined for the provider edge device , the control plane message indicating a multicast group; receiving, by the provider edge device , an indication that the provider edge device is a primary neighbor of the customer edge device , and forwarding, by the provider edge device to the customer edge device via the redundant attachment circuit for the L2VPN and based at least on the control plane message, in response to the indication that the provider edge device is the primary neighbor of the customer edge device , multicast traffic for the multicast group received from the L3 network.
An air conditioning system comprising: a refrigerant cycle (RC) including an outdoor unit and a plurality of indoor units ; a power feed unit that, in a case where a power source for at least one indoor unit of the plurality of indoor units has been interrupted, is configured to feed power from an auxiliary power source to the indoor unit for which the power source has been interrupted; characterized by a controller , which is, in a state in which a predetermined device has been connected to at least part of the plurality of indoor units and the power feed unit, configured to perform a notification of a state of the device and a limitation of functions of the device. a refrigerant cycle (RC) including an outdoor unit and a plurality of indoor units ; a power feed unit that, in a case where a power source for at least one indoor unit of the plurality of indoor units has been interrupted, is configured to feed power from an auxiliary power source to the indoor unit for which the power source has been interrupted; characterized by a controller , which is, in a state in which a predetermined device has been connected to at least part of the plurality of indoor units and the power feed unit, configured to perform a notification of a state of the device and a limitation of functions of the device.
A polyester comprising: - 2,5-furandicarboxylic acid moieties (A); - ethylene glycol moieties (B); - 1,4 : 3,6-dianhydrohexitol moieties (C); - alicyclic diol moieties other than the 1,4 : 3,6-dianhydrohexitol moieties (D); wherein the molar ratio (B) / [(B) + (C) + (D)] is greater than 0.2. - 2,5-furandicarboxylic acid moieties (A); - ethylene glycol moieties (B); - 1,4 : 3,6-dianhydrohexitol moieties (C); - alicyclic diol moieties other than the 1,4 : 3,6-dianhydrohexitol moieties (D);
A liquid polymer composition for administration into the body of a human, comprising: a. a biodegradable liquid polyester comprising at least one carboxylic acid end group, wherein a ratio of monomer units to carboxylic acid end groups is between 5:1 and 90:1; b. a biocompatible organicsolvent, and c. an active pharmaceutical agent, wherein the biodegradable liquid polyester comprises at least about 50% lactide residues and an amount greater than about 5% of residues of comonomers selected from caprolactone, trimethylene carbonate and combinations thereof; and the biodegradable liquid polyester has a weight-average molecular weight between 5 kDa and 25 kDa. a. a biodegradable liquid polyester comprising at least one carboxylic acid end group, wherein a ratio of monomer units to carboxylic acid end groups is between 5:1 and 90:1; b. a biocompatible organicsolvent, and c. an active pharmaceutical agent, the biodegradable liquid polyester comprises at least about 50% lactide residues and an amount greater than about 5% of residues of comonomers selected from caprolactone, trimethylene carbonate and combinations thereof; and the biodegradable liquid polyester has a weight-average molecular weight between 5 kDa and 25 kDa.
Method for operating an assistance system for automated driving operation of a vehicle , which is guided along a determined standard trajectory (S) in a longitudinally and transversely controlled manner, wherein an emergency trajectory (N) is continuously determined, along which the vehicle is brought to a standstill in a longitudinally and transversely controlled manner after activation of an emergency operation of the vehicle , wherein, in the case of a lane change of the vehicle from a starting lane (F1) to a target lane (F2), which change is imminent or already initiated according to the determined standard trajectory (S), it is decided whether the vehicle is to be brought to a standstill in the starting lane (F1) or in the target lane (F2) upon activation of the emergency operation, depending on a position of the vehicle on the determined standard trajectory (S), and wherein the vehicle is then brought to a standstill in the starting lane (F1) if an emergency trajectory (N) is planned, by means of which the vehicle is brought to a standstill in the starting lane (F1) within a predetermined travel distance and/or within a predetermined period of time, and if a predetermined comfort value of a transverse acceleration acting on the vehicle and a predetermined penetration depth of the vehicle into the target lane (F2) are not exceeded. wherein, in the case of a lane change of the vehicle from a starting lane (F1) to a target lane (F2), which change is imminent or already initiated according to the determined standard trajectory (S), it is decided whether the vehicle is to be brought to a standstill in the starting lane (F1) or in the target lane (F2) upon activation of the emergency operation, depending on a position of the vehicle on the determined standard trajectory (S), and wherein the vehicle is then brought to a standstill in the starting lane (F1) if an emergency trajectory (N) is planned, by means of which the vehicle is brought to a standstill in the starting lane (F1) within a predetermined travel distance and/or within a predetermined period of time, and if a predetermined comfort value of a transverse acceleration acting on the vehicle and a predetermined penetration depth of the vehicle into the target lane (F2) are not exceeded.
An apparatus for transporting molten molding material, comprising: a vessel having an orifice and an internal cavity for receiving said molten molding material through said orifice and preventing flow of said material during transport, wherein said orifice is both a filling orifice, for mating to a melter to receive said molten molding material, and an ejection orifice, for mating to a mold to force said molten molding material from said vessel into said mold; a coupling assembly for selectively mating to a processing station to transfer molding material; an ejection mechanism operable to force said molten molding material out of said vessel; characterised by transport device comprising a guide with which said vessel is configured to releasably engage for movement of said vessel along said guide relative to a processing station, said guide comprising one or more tracks or conveyors; and a handling feature for releasably securing said vessel to said transport device, said handling feature comprising an adapter configured to engage said vessel and said guide. a vessel having an orifice and an internal cavity for receiving said molten molding material through said orifice and preventing flow of said material during transport, wherein said orifice is both a filling orifice, for mating to a melter to receive said molten molding material, and an ejection orifice, for mating to a mold to force said molten molding material from said vessel into said mold; a coupling assembly for selectively mating to a processing station to transfer molding material; an ejection mechanism operable to force said molten molding material out of said vessel; characterised by transport device comprising a guide with which said vessel is configured to releasably engage for movement of said vessel along said guide relative to a processing station, said guide comprising one or more tracks or conveyors; and a handling feature for releasably securing said vessel to said transport device, said handling feature comprising an adapter configured to engage said vessel and said guide.