mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid dispensing system, comprising: a handheld liquid dispense device comprising: a body portion ; a dispensing head ; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; an ingredient system located remotely from the handheld liquid dispense device ; piping extending from the ingredient system to the handheld liquid dispense device , the ingredient system having a plurality of beverage ingredient sources and configured to supply beverage ingredients to the piping for the dispensing of customized beverages from the handheld liquid dispense device; and a plurality of flow control valves , each flow control valve associated with a beverage ingredient, wherein dispensing a customized beverage comprises dispensing the beverage and a flavor ingredient simultaneously from the dispensing head . a handheld liquid dispense device comprising: a body portion ; a dispensing head ; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; a body portion ; a dispensing head ; and a user interface configured to receive a first user selection for a beverage and a separate user selection for a flavor ingredient modifying the beverage; an ingredient system located remotely from the handheld liquid dispense device ; piping extending from the ingredient system to the handheld liquid dispense device , the ingredient system having a plurality of beverage ingredient sources and configured to supply beverage ingredients to the piping for the dispensing of customized beverages from the handheld liquid dispense device; and a plurality of flow control valves , each flow control valve associated with a beverage ingredient, wherein dispensing a customized beverage comprises dispensing the beverage and a flavor ingredient simultaneously from the dispensing head .
An information processing apparatus comprising: a corresponding point acquiring section that specifies, on a basis of learned data used in specifying corresponding points obtained by performing learning using data of a predetermined portion that has symmetry with respect to other portions of an entire model that represents an object as a recognition target, second points on the model included in an input scene that correspond to first points in the predetermined portion on the model that represents an object as a recognition target, as the corresponding points; and a posture predicting section that predicts a posture of the model included in the scene on a basis of the corresponding points, wherein the predetermined portion includes a portion established such that in a case where the predetermined portion is shifted to respective positions of a plurality of the other portions that have symmetry in terms of at least either one of texture or shape, the predetermined portion does not have a region overlapping any of the plurality of the other portions; and the predetermined portion includes a portion established such that in a case where the predetermined portion is shifted to respective positions of a plurality of the other portions that have symmetry, a union of the shifted portions corresponds to the entire model. a corresponding point acquiring section that specifies, on a basis of learned data used in specifying corresponding points obtained by performing learning using data of a predetermined portion that has symmetry with respect to other portions of an entire model that represents an object as a recognition target, second points on the model included in an input scene that correspond to first points in the predetermined portion on the model that represents an object as a recognition target, as the corresponding points; and a posture predicting section that predicts a posture of the model included in the scene on a basis of the corresponding points, wherein the predetermined portion includes a portion established such that in a case where the predetermined portion is shifted to respective positions of a plurality of the other portions that have symmetry in terms of at least either one of texture or shape, the predetermined portion does not have a region overlapping any of the plurality of the other portions; and the predetermined portion includes a portion established such that in a case where the predetermined portion is shifted to respective positions of a plurality of the other portions that have symmetry, a union of the shifted portions corresponds to the entire model.
An image capture device comprising: an image sensor ; a privacy solution comprising a shutter ; a touch-enabled layer disposed above the image sensor ; and a controller to: register a user touch interaction with the touch-enabled layer ; and based on a gesture detected from the user touch interaction, cycle between engaging the shutter to cover the image sensor and disengaging the shutter to expose the image sensor , wherein when the controller detects a first type of gesture from the user touch interaction, the controller is to engage the shutter to cover the image sensor and when the controller detects a second type of gesture different from the first gesture, the controller is to disengage the shutter to expose the image sensor . an image sensor ; a privacy solution comprising a shutter ; a touch-enabled layer disposed above the image sensor ; and a controller to: register a user touch interaction with the touch-enabled layer ; and based on a gesture detected from the user touch interaction, cycle between engaging the shutter to cover the image sensor and disengaging the shutter to expose the image sensor , wherein when the controller detects a first type of gesture from the user touch interaction, the controller is to engage the shutter to cover the image sensor and when the controller detects a second type of gesture different from the first gesture, the controller is to disengage the shutter to expose the image sensor . register a user touch interaction with the touch-enabled layer ; and based on a gesture detected from the user touch interaction, cycle between engaging the shutter to cover the image sensor and disengaging the shutter to expose the image sensor , wherein when the controller detects a first type of gesture from the user touch interaction, the controller is to engage the shutter to cover the image sensor and when the controller detects a second type of gesture different from the first gesture, the controller is to disengage the shutter to expose the image sensor .
A method for reforming a glass sleeve comprising: a. providing a tube made of glass , the tube having a longitudinal axis and an inner surface enclosing a space ; b. heating the tube to a temperature within the softening range of the glass; c. introducing a shaping tool having at least two opposing fingers into the enclosed space , the opposing fingers extending radially; d. moving the at least two opposing fingers against the inner surface along a radial axis to reform the tube , to form a first portion; and e. moving the at least two opposing fingers apart, deviating from the radial axis , to reform the tube , to form a second portion. a. providing a tube made of glass , the tube having a longitudinal axis and an inner surface enclosing a space ; b. heating the tube to a temperature within the softening range of the glass; c. introducing a shaping tool having at least two opposing fingers into the enclosed space , the opposing fingers extending radially; d. moving the at least two opposing fingers against the inner surface along a radial axis to reform the tube , to form a first portion; and e. moving the at least two opposing fingers apart, deviating from the radial axis , to reform the tube , to form a second portion.
A method of training a neural network configured for providing a further processing location , wherein the method comprises: providing a labeled medical image , wherein the labeled medical image comprises multiple labels each indicating a truth processing location ; inputting the labeled medical image into the neural network to obtain one trial processing location, wherein the one trial processing location consists of a most likely trial processing location ; determine the closest truth processing location for the most likely trial processing location, wherein the closest truth processing location is the closest of the truth processing locations to the output of the neural network; calculating an error vector using the closest truth processing location and the most likely trial processing location, wherein the error vector is a position change between the closest truth processing location and the most likely trial processing location, wherein the error vector is calculated only using the closest truth processing location and the most likely trial processing location; training the neural network using the error vector; and wherein the method is performed repeatedly using multiple labeled medical images. providing a labeled medical image , wherein the labeled medical image comprises multiple labels each indicating a truth processing location ; inputting the labeled medical image into the neural network to obtain one trial processing location, wherein the one trial processing location consists of a most likely trial processing location ; determine the closest truth processing location for the most likely trial processing location, wherein the closest truth processing location is the closest of the truth processing locations to the output of the neural network; calculating an error vector using the closest truth processing location and the most likely trial processing location, wherein the error vector is a position change between the closest truth processing location and the most likely trial processing location, wherein the error vector is calculated only using the closest truth processing location and the most likely trial processing location; training the neural network using the error vector; and wherein the method is performed repeatedly using multiple labeled medical images.
A heat shield assembly , comprising: a skin panel ; and a stiffener , comprising a base portion and a bead portion , protruding from said base portion , wherein said base portion is connected to said skin panel to define a bead volume between said bead portion and said skin panel ; and a plurality of frame members , wherein: said skin panel is connected to said plurality of frame members , said skin panel comprises an interior surface and an exterior surface , said plurality of frame members is connected to said interior surface , said base portion of said stiffener is connected to said interior surface , and said stiffener is separate from, but connected to, said skin panel . a skin panel ; and a stiffener , comprising a base portion and a bead portion , protruding from said base portion , wherein said base portion is connected to said skin panel to define a bead volume between said bead portion and said skin panel ; and a plurality of frame members , wherein: said skin panel is connected to said plurality of frame members , said skin panel comprises an interior surface and an exterior surface , said plurality of frame members is connected to said interior surface , said base portion of said stiffener is connected to said interior surface , and said stiffener is separate from, but connected to, said skin panel . said skin panel is connected to said plurality of frame members , said skin panel comprises an interior surface and an exterior surface , said plurality of frame members is connected to said interior surface , said base portion of said stiffener is connected to said interior surface , and said stiffener is separate from, but connected to, said skin panel .
A radiographic imaging apparatus , comprising: a radiation irradiator configured to irradiate radiation to an object; a radiation detector configured to detect an intensity of the radiation passing through the object; a loader configured to load the object; characterised in a controller configured to obtain one or more zones of the object by dividing the object based on the intensity of the radiation; wherein the controller is further configured to change at least one of a movement speed of the loader and a range of radiation irradiation of the radiation irradiator according to a change in the intensity of the radiation with respect to a zone of the object, when the change in the intensity of the radiation in the zone is greater than or equal to a threshold value. a radiation irradiator configured to irradiate radiation to an object; a radiation detector configured to detect an intensity of the radiation passing through the object; a loader configured to load the object; characterised in a controller configured to obtain one or more zones of the object by dividing the object based on the intensity of the radiation; wherein the controller is further configured to change at least one of a movement speed of the loader and a range of radiation irradiation of the radiation irradiator according to a change in the intensity of the radiation with respect to a zone of the object, when the change in the intensity of the radiation in the zone is greater than or equal to a threshold value.
A contact element for establishing electrical contact between two contact pieces (K1, K2), comprising a carrier strip that extends in a longitudinal direction (L) and a plurality of contact parts each having at least one first contact section for making contact with one of the two contact pieces (K1, K2), at least one second contact section for making contact with the other of the two contact pieces (K2, K1), and also having at least one fastening section for fastening the contact part to a fastening spot at the carrier strip , wherein each contact part comprises at least one plastically deformable connecting element for fastening the contact part to the carrier strip , wherein the at least one connecting element is an integral constituent part of the contact part , wherein the at least one connecting element has a shaft that protrudes away from the at least one fastening section and that is guided through a fastening opening in the carrier strip, wherein the shaft is plastically deformed in a forming process in such a way that the shaft forms a mechanically fixed connection with the carrier strip , wherein the at least one connecting element is formed from the fastening section , characterized in that the at least one connecting element is pressed out of the fastening section by means of a stamping process or a punch-through process, and that the fastening section comprises an indentation opposite the connecting element , wherein the volume of the indentation corresponds substantially to the volume of the connecting element that has been pressed out.
A method of rendering a gemstone traceable, comprising the steps: providing an invisible marker , wherein the marker has a size of 10 nm up to and including 1000 nm, and wherein the marker is uniquely identifiable, transporting the marker suspended in a carrier fluid to a placement location in order to fasten the marker in the placement location of the gemstone , fastening the marker in the placement location of the gemstone , and acquiring a marking information which includes that this unambiguously identifiable marker is attached to this gemstone , characterised in that the gemstone is immersed at least partly into the carrier fluid with the suspended marker , in order to transport the marker which is suspended in the carrier fluid to the placement location in the gemstone , the carrier fluid being located in a vessel , and wherein the gemstone is at least partly immersed into the carrier fluid over a time duration of several hours, and in addition the gemstone and the carrier fluid are brought into motion, thus for example shaken, exposed to sound, in particular with ultrasound, pivoted, rotated or stirred. providing an invisible marker , wherein the marker has a size of 10 nm up to and including 1000 nm, and wherein the marker is uniquely identifiable, transporting the marker suspended in a carrier fluid to a placement location in order to fasten the marker in the placement location of the gemstone , fastening the marker in the placement location of the gemstone , and acquiring a marking information which includes that this unambiguously identifiable marker is attached to this gemstone , characterised in that the gemstone is immersed at least partly into the carrier fluid with the suspended marker , in order to transport the marker which is suspended in the carrier fluid to the placement location in the gemstone , the carrier fluid being located in a vessel , and wherein the gemstone is at least partly immersed into the carrier fluid over a time duration of several hours, and in addition the gemstone and the carrier fluid are brought into motion, thus for example shaken, exposed to sound, in particular with ultrasound, pivoted, rotated or stirred.
A nozzle for a 3D-printer, the nozzle comprising a hole for through-passing of a plastic component, the hole having an inner side wall, the nozzle comprising a funnel shaped end characterized in that the nozzle comprises an exit hole and a piece of heat conductive material located in said hole above the funnel shaped end, the piece of heat-conductive material being attached in at least one place to the inner side wall of the hole, the piece of heat-conductive material extending from the side wall towards the centre of the hole for transferring heat from the side wall towards the centre of the hole.
Microencapsulation process of inorganic phase change materials based on potassium nitrate in an inorganic nanostructured zinc oxide shell having a gravimetric ratio between ZnO shell and KNO3 encapsulated material of between 1:1 and 5:1, preferably 1:1 to 2:1, with applications for thermal energy storage at temperatures above 300 °C'; this process is characterized by the fact that the nanostructured zinc oxide shell is precipitated in-situ with potassium hydroxide on the potassium nitrate particles which are dispersed in the alcohol solution of zinc nitrate at 9.0 pH., followed by solvo-thermal treatment in an autoclave for 2 hours at 200 °C and 4.053 MPa (40 atm.) argon pressure, followed by spray-drying process of the suspensions at an air temperature of about 200 °C inside the spraying equipment to obtain grain sizes in the range of 25-50 μm.
An EndoS mutant enzyme according to one of the following: 1) an EndoS mutant enzyme comprising an amino acid sequence of amino acid numbers 37 to 995 of SEQ ID NO: 2 with one or more mutations at at least one amino acid position selected from the group consisting of: amino acid 122 (H122), amino acid 279 (D279), amino acid 282 (Y282), amino acid 303 (Q303), amino acid 348 (Y348), amino acid 350 (E350), amino acid 402 (Y402), amino acid 405 (D405), and amino acid 406 (R406), and exhibiting a reduced hydrolysis activity in comparison with the activity of EndoS D233Q, the activity being an activity on an N-linked sugar chain (N297-linked sugar chain) linked to Asn at position 297 in IgG; or 2) an EndoS mutant enzyme according to 1) wherein 1 to 20 amino acids are substituted, deleted, inserted, and/or added at positions other than at the positions of amino acid numbers 98 to 445 and 765 to 923 of SEQ ID NO: 2; wherein the EndoS mutant enzyme according to 1) or 2) has transglycosylation activity at a level equivalent to or higher than that of EndoS D233Q. 1) an EndoS mutant enzyme comprising an amino acid sequence of amino acid numbers 37 to 995 of SEQ ID NO: 2 with one or more mutations at at least one amino acid position selected from the group consisting of: amino acid 122 (H122), amino acid 279 (D279), amino acid 282 (Y282), amino acid 303 (Q303), amino acid 348 (Y348), amino acid 350 (E350), amino acid 402 (Y402), amino acid 405 (D405), and amino acid 406 (R406), and exhibiting a reduced hydrolysis activity in comparison with the activity of EndoS D233Q, the activity being an activity on an N-linked sugar chain (N297-linked sugar chain) linked to Asn at position 297 in IgG; or 2) an EndoS mutant enzyme according to 1) wherein 1 to 20 amino acids are substituted, deleted, inserted, and/or added at positions other than at the positions of amino acid numbers 98 to 445 and 765 to 923 of SEQ ID NO: 2;
A terminal apparatus comprising: a MAC, Medium Access Control, layer processing unit configured to initiate a random access procedure on a primary cell, and initiate a random access procedure on a secondary cell, and in a case in which at least one scheduling request is pending, no UL-SCH, uplink shared channel, resources are available for a transmission, the terminal apparatus has a valid PUCCH, Physical Uplink Control Channel, resource for the scheduling request, and a value of a counter which counts the number of scheduling requests transmitted is smaller than a predetermined value, increment the value of the counter by 1 and instruct a transmission unit to transmit the scheduling request on the valid PUCCH resource; and the transmission unit configured to, in a case in which the valid PUCCH resource for the scheduling request is configured only on the secondary cell, transmit the scheduling request on the valid PUCCH resource on the secondary cell, wherein the MAC layer processing unit is further configured to initiate the random access procedure on the primary cell out of the primary cell and the secondary cell, the primary cell being indicated in a handover procedure and the PUCCH resource for the scheduling request being configured on the secondary cell, in a case in which at least one scheduling request is pending, no UL-SCH resources are available for the transmission, the terminal apparatus has the valid PUCCH resource for the scheduling request, and the value of the counter is equal to or larger than the predetermined value. a MAC, Medium Access Control, layer processing unit configured to initiate a random access procedure on a primary cell, and initiate a random access procedure on a secondary cell, and in a case in which at least one scheduling request is pending, no UL-SCH, uplink shared channel, resources are available for a transmission, the terminal apparatus has a valid PUCCH, Physical Uplink Control Channel, resource for the scheduling request, and a value of a counter which counts the number of scheduling requests transmitted is smaller than a predetermined value, increment the value of the counter by 1 and instruct a transmission unit to transmit the scheduling request on the valid PUCCH resource; and the transmission unit configured to, in a case in which the valid PUCCH resource for the scheduling request is configured only on the secondary cell, transmit the scheduling request on the valid PUCCH resource on the secondary cell, wherein the MAC layer processing unit is further configured to initiate the random access procedure on the primary cell out of the primary cell and the secondary cell, the primary cell being indicated in a handover procedure and the PUCCH resource for the scheduling request being configured on the secondary cell, in a case in which at least one scheduling request is pending, no UL-SCH resources are available for the transmission, the terminal apparatus has the valid PUCCH resource for the scheduling request, and the value of the counter is equal to or larger than the predetermined value.